Index: stable/11/sys/dev/de/if_de.c =================================================================== --- stable/11/sys/dev/de/if_de.c (revision 332289) +++ stable/11/sys/dev/de/if_de.c (revision 332290) @@ -1,5017 +1,5005 @@ /* $NetBSD: if_de.c,v 1.86 1999/06/01 19:17:59 thorpej Exp $ */ /*- * Copyright (c) 1994-1997 Matt Thomas (matt@3am-software.com) * All rights reserved. * * Redistribution and use in source and binary forms, with or without * modification, are permitted provided that the following conditions * are met: * 1. Redistributions of source code must retain the above copyright * notice, this list of conditions and the following disclaimer. * 2. The name of the author may not be used to endorse or promote products * derived from this software without specific prior written permission * * THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR * IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES * OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. * IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT, * INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT * NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, * DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY * THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT * (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF * THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. * * Id: if_de.c,v 1.94 1997/07/03 16:55:07 thomas Exp */ /* * DEC 21040 PCI Ethernet Controller * * Written by Matt Thomas * BPF support code stolen directly from if_ec.c * * This driver supports the DEC DE435 or any other PCI * board which support 21040, 21041, or 21140 (mostly). */ #include __FBSDID("$FreeBSD$"); #define TULIP_HDR_DATA #include "opt_ddb.h" #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #ifdef INET #include #include #endif #include #include #include #include #include #include #ifdef DDB #include #endif /* * Intel CPUs should use I/O mapped access. */ #if defined(__i386__) #define TULIP_IOMAPPED #endif #if 0 /* This enables KTR traces at KTR_DEV. */ #define KTR_TULIP KTR_DEV #else #define KTR_TULIP 0 #endif #if 0 /* * This turns on all sort of debugging stuff and make the * driver much larger. */ #define TULIP_DEBUG #endif #if 0 #define TULIP_PERFSTATS #endif #define TULIP_HZ 10 #include #define SYNC_NONE 0 #define SYNC_RX 1 #define SYNC_TX 2 /* * This module supports * the DEC 21040 PCI Ethernet Controller. * the DEC 21041 PCI Ethernet Controller. * the DEC 21140 PCI Fast Ethernet Controller. */ static void tulip_addr_filter(tulip_softc_t * const sc); static int tulip_ifmedia_change(struct ifnet * const ifp); static void tulip_ifmedia_status(struct ifnet * const ifp, struct ifmediareq *req); static void tulip_init(void *); static void tulip_init_locked(tulip_softc_t * const sc); static void tulip_intr_shared(void *arg); static void tulip_intr_normal(void *arg); static void tulip_mii_autonegotiate(tulip_softc_t * const sc, const unsigned phyaddr); static int tulip_mii_map_abilities(tulip_softc_t * const sc, unsigned abilities); static tulip_media_t tulip_mii_phy_readspecific(tulip_softc_t * const sc); static unsigned tulip_mii_readreg(tulip_softc_t * const sc, unsigned devaddr, unsigned regno); static void tulip_mii_writereg(tulip_softc_t * const sc, unsigned devaddr, unsigned regno, unsigned data); static void tulip_reset(tulip_softc_t * const sc); static void tulip_rx_intr(tulip_softc_t * const sc); static int tulip_srom_decode(tulip_softc_t * const sc); static void tulip_start(struct ifnet *ifp); static void tulip_start_locked(tulip_softc_t * const sc); static struct mbuf * tulip_txput(tulip_softc_t * const sc, struct mbuf *m); static void tulip_txput_setup(tulip_softc_t * const sc); static void tulip_watchdog(void *arg); struct mbuf * tulip_dequeue_mbuf(tulip_ringinfo_t *ri, tulip_descinfo_t *di, int sync); static void tulip_dma_map_addr(void *, bus_dma_segment_t *, int, int); static void tulip_dma_map_rxbuf(void *, bus_dma_segment_t *, int, bus_size_t, int); static void tulip_dma_map_addr(void *arg, bus_dma_segment_t *segs, int nseg, int error) { bus_addr_t *paddr; if (error) return; paddr = arg; *paddr = segs->ds_addr; } static void tulip_dma_map_rxbuf(void *arg, bus_dma_segment_t *segs, int nseg, bus_size_t mapsize, int error) { tulip_desc_t *desc; if (error) return; desc = arg; KASSERT(nseg == 1, ("too many DMA segments")); KASSERT(segs[0].ds_len >= TULIP_RX_BUFLEN, ("receive buffer too small")); desc->d_addr1 = segs[0].ds_addr & 0xffffffff; desc->d_length1 = TULIP_RX_BUFLEN; #ifdef not_needed /* These should already always be zero. */ desc->d_addr2 = 0; desc->d_length2 = 0; #endif } struct mbuf * tulip_dequeue_mbuf(tulip_ringinfo_t *ri, tulip_descinfo_t *di, int sync) { struct mbuf *m; m = di->di_mbuf; if (m != NULL) { switch (sync) { case SYNC_NONE: break; case SYNC_RX: TULIP_RXMAP_POSTSYNC(ri, di); break; case SYNC_TX: TULIP_TXMAP_POSTSYNC(ri, di); break; default: panic("bad sync flag: %d", sync); } bus_dmamap_unload(ri->ri_data_tag, *di->di_map); di->di_mbuf = NULL; } return (m); } static void tulip_timeout_callback(void *arg) { tulip_softc_t * const sc = arg; TULIP_PERFSTART(timeout) TULIP_LOCK_ASSERT(sc); sc->tulip_flags &= ~TULIP_TIMEOUTPENDING; sc->tulip_probe_timeout -= 1000 / TULIP_HZ; (sc->tulip_boardsw->bd_media_poll)(sc, TULIP_MEDIAPOLL_TIMER); TULIP_PERFEND(timeout); } static void tulip_timeout(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); if (sc->tulip_flags & TULIP_TIMEOUTPENDING) return; sc->tulip_flags |= TULIP_TIMEOUTPENDING; callout_reset(&sc->tulip_callout, (hz + TULIP_HZ / 2) / TULIP_HZ, tulip_timeout_callback, sc); } static int tulip_txprobe(tulip_softc_t * const sc) { struct mbuf *m; u_char *enaddr; /* * Before we are sure this is the right media we need * to send a small packet to make sure there's carrier. * Strangely, BNC and AUI will "see" receive data if * either is connected so the transmit is the only way * to verify the connectivity. */ TULIP_LOCK_ASSERT(sc); MGETHDR(m, M_NOWAIT, MT_DATA); if (m == NULL) return 0; /* * Construct a LLC TEST message which will point to ourselves. */ if (sc->tulip_ifp->if_input != NULL) enaddr = IF_LLADDR(sc->tulip_ifp); else enaddr = sc->tulip_enaddr; bcopy(enaddr, mtod(m, struct ether_header *)->ether_dhost, ETHER_ADDR_LEN); bcopy(enaddr, mtod(m, struct ether_header *)->ether_shost, ETHER_ADDR_LEN); mtod(m, struct ether_header *)->ether_type = htons(3); mtod(m, unsigned char *)[14] = 0; mtod(m, unsigned char *)[15] = 0; mtod(m, unsigned char *)[16] = 0xE3; /* LLC Class1 TEST (no poll) */ m->m_len = m->m_pkthdr.len = sizeof(struct ether_header) + 3; /* * send it! */ sc->tulip_cmdmode |= TULIP_CMD_TXRUN; sc->tulip_intrmask |= TULIP_STS_TXINTR; sc->tulip_flags |= TULIP_TXPROBE_ACTIVE; TULIP_CSR_WRITE(sc, csr_command, sc->tulip_cmdmode); TULIP_CSR_WRITE(sc, csr_intr, sc->tulip_intrmask); if ((m = tulip_txput(sc, m)) != NULL) m_freem(m); sc->tulip_probe.probe_txprobes++; return 1; } static void tulip_media_set(tulip_softc_t * const sc, tulip_media_t media) { const tulip_media_info_t *mi = sc->tulip_mediums[media]; TULIP_LOCK_ASSERT(sc); if (mi == NULL) return; /* * If we are switching media, make sure we don't think there's * any stale RX activity */ sc->tulip_flags &= ~TULIP_RXACT; if (mi->mi_type == TULIP_MEDIAINFO_SIA) { TULIP_CSR_WRITE(sc, csr_sia_connectivity, TULIP_SIACONN_RESET); TULIP_CSR_WRITE(sc, csr_sia_tx_rx, mi->mi_sia_tx_rx); if (sc->tulip_features & TULIP_HAVE_SIAGP) { TULIP_CSR_WRITE(sc, csr_sia_general, mi->mi_sia_gp_control|mi->mi_sia_general); DELAY(50); TULIP_CSR_WRITE(sc, csr_sia_general, mi->mi_sia_gp_data|mi->mi_sia_general); } else { TULIP_CSR_WRITE(sc, csr_sia_general, mi->mi_sia_general); } TULIP_CSR_WRITE(sc, csr_sia_connectivity, mi->mi_sia_connectivity); } else if (mi->mi_type == TULIP_MEDIAINFO_GPR) { #define TULIP_GPR_CMDBITS (TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION|TULIP_CMD_SCRAMBLER|TULIP_CMD_TXTHRSHLDCTL) /* * If the cmdmode bits don't match the currently operating mode, * set the cmdmode appropriately and reset the chip. */ if (((mi->mi_cmdmode ^ TULIP_CSR_READ(sc, csr_command)) & TULIP_GPR_CMDBITS) != 0) { sc->tulip_cmdmode &= ~TULIP_GPR_CMDBITS; sc->tulip_cmdmode |= mi->mi_cmdmode; tulip_reset(sc); } TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_PINSET|sc->tulip_gpinit); DELAY(10); TULIP_CSR_WRITE(sc, csr_gp, (u_int8_t) mi->mi_gpdata); } else if (mi->mi_type == TULIP_MEDIAINFO_SYM) { /* * If the cmdmode bits don't match the currently operating mode, * set the cmdmode appropriately and reset the chip. */ if (((mi->mi_cmdmode ^ TULIP_CSR_READ(sc, csr_command)) & TULIP_GPR_CMDBITS) != 0) { sc->tulip_cmdmode &= ~TULIP_GPR_CMDBITS; sc->tulip_cmdmode |= mi->mi_cmdmode; tulip_reset(sc); } TULIP_CSR_WRITE(sc, csr_sia_general, mi->mi_gpcontrol); TULIP_CSR_WRITE(sc, csr_sia_general, mi->mi_gpdata); } else if (mi->mi_type == TULIP_MEDIAINFO_MII && sc->tulip_probe_state != TULIP_PROBE_INACTIVE) { int idx; if (sc->tulip_features & TULIP_HAVE_SIAGP) { const u_int8_t *dp; dp = &sc->tulip_rombuf[mi->mi_reset_offset]; for (idx = 0; idx < mi->mi_reset_length; idx++, dp += 2) { DELAY(10); TULIP_CSR_WRITE(sc, csr_sia_general, (dp[0] + 256 * dp[1]) << 16); } sc->tulip_phyaddr = mi->mi_phyaddr; dp = &sc->tulip_rombuf[mi->mi_gpr_offset]; for (idx = 0; idx < mi->mi_gpr_length; idx++, dp += 2) { DELAY(10); TULIP_CSR_WRITE(sc, csr_sia_general, (dp[0] + 256 * dp[1]) << 16); } } else { for (idx = 0; idx < mi->mi_reset_length; idx++) { DELAY(10); TULIP_CSR_WRITE(sc, csr_gp, sc->tulip_rombuf[mi->mi_reset_offset + idx]); } sc->tulip_phyaddr = mi->mi_phyaddr; for (idx = 0; idx < mi->mi_gpr_length; idx++) { DELAY(10); TULIP_CSR_WRITE(sc, csr_gp, sc->tulip_rombuf[mi->mi_gpr_offset + idx]); } } if (sc->tulip_flags & TULIP_TRYNWAY) { tulip_mii_autonegotiate(sc, sc->tulip_phyaddr); } else if ((sc->tulip_flags & TULIP_DIDNWAY) == 0) { u_int32_t data = tulip_mii_readreg(sc, sc->tulip_phyaddr, PHYREG_CONTROL); data &= ~(PHYCTL_SELECT_100MB|PHYCTL_FULL_DUPLEX|PHYCTL_AUTONEG_ENABLE); sc->tulip_flags &= ~TULIP_DIDNWAY; if (TULIP_IS_MEDIA_FD(media)) data |= PHYCTL_FULL_DUPLEX; if (TULIP_IS_MEDIA_100MB(media)) data |= PHYCTL_SELECT_100MB; tulip_mii_writereg(sc, sc->tulip_phyaddr, PHYREG_CONTROL, data); } } } static void tulip_linkup(tulip_softc_t * const sc, tulip_media_t media) { TULIP_LOCK_ASSERT(sc); if ((sc->tulip_flags & TULIP_LINKUP) == 0) sc->tulip_flags |= TULIP_PRINTLINKUP; sc->tulip_flags |= TULIP_LINKUP; sc->tulip_ifp->if_drv_flags &= ~IFF_DRV_OACTIVE; #if 0 /* XXX how does with work with ifmedia? */ if ((sc->tulip_flags & TULIP_DIDNWAY) == 0) { if (sc->tulip_ifp->if_flags & IFF_FULLDUPLEX) { if (TULIP_CAN_MEDIA_FD(media) && sc->tulip_mediums[TULIP_FD_MEDIA_OF(media)] != NULL) media = TULIP_FD_MEDIA_OF(media); } else { if (TULIP_IS_MEDIA_FD(media) && sc->tulip_mediums[TULIP_HD_MEDIA_OF(media)] != NULL) media = TULIP_HD_MEDIA_OF(media); } } #endif if (sc->tulip_media != media) { #ifdef TULIP_DEBUG sc->tulip_dbg.dbg_last_media = sc->tulip_media; #endif sc->tulip_media = media; sc->tulip_flags |= TULIP_PRINTMEDIA; if (TULIP_IS_MEDIA_FD(sc->tulip_media)) { sc->tulip_cmdmode |= TULIP_CMD_FULLDUPLEX; } else if (sc->tulip_chipid != TULIP_21041 || (sc->tulip_flags & TULIP_DIDNWAY) == 0) { sc->tulip_cmdmode &= ~TULIP_CMD_FULLDUPLEX; } } /* * We could set probe_timeout to 0 but setting to 3000 puts this * in one central place and the only matters is tulip_link is * followed by a tulip_timeout. Therefore setting it should not * result in aberrant behaviour. */ sc->tulip_probe_timeout = 3000; sc->tulip_probe_state = TULIP_PROBE_INACTIVE; sc->tulip_flags &= ~(TULIP_TXPROBE_ACTIVE|TULIP_TRYNWAY); if (sc->tulip_flags & TULIP_INRESET) { tulip_media_set(sc, sc->tulip_media); } else if (sc->tulip_probe_media != sc->tulip_media) { /* * No reason to change media if we have the right media. */ tulip_reset(sc); } tulip_init_locked(sc); } static void tulip_media_print(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); if ((sc->tulip_flags & TULIP_LINKUP) == 0) return; if (sc->tulip_flags & TULIP_PRINTMEDIA) { device_printf(sc->tulip_dev, "enabling %s port\n", tulip_mediums[sc->tulip_media]); sc->tulip_flags &= ~(TULIP_PRINTMEDIA|TULIP_PRINTLINKUP); } else if (sc->tulip_flags & TULIP_PRINTLINKUP) { device_printf(sc->tulip_dev, "link up\n"); sc->tulip_flags &= ~TULIP_PRINTLINKUP; } } #if defined(TULIP_DO_GPR_SENSE) static tulip_media_t tulip_21140_gpr_media_sense(tulip_softc_t * const sc) { struct ifnet *ifp sc->tulip_ifp; tulip_media_t maybe_media = TULIP_MEDIA_UNKNOWN; tulip_media_t last_media = TULIP_MEDIA_UNKNOWN; tulip_media_t media; TULIP_LOCK_ASSERT(sc); /* * If one of the media blocks contained a default media flag, * use that. */ for (media = TULIP_MEDIA_UNKNOWN; media < TULIP_MEDIA_MAX; media++) { const tulip_media_info_t *mi; /* * Media is not supported (or is full-duplex). */ if ((mi = sc->tulip_mediums[media]) == NULL || TULIP_IS_MEDIA_FD(media)) continue; if (mi->mi_type != TULIP_MEDIAINFO_GPR) continue; /* * Remember the media is this is the "default" media. */ if (mi->mi_default && maybe_media == TULIP_MEDIA_UNKNOWN) maybe_media = media; /* * No activity mask? Can't see if it is active if there's no mask. */ if (mi->mi_actmask == 0) continue; /* * Does the activity data match? */ if ((TULIP_CSR_READ(sc, csr_gp) & mi->mi_actmask) != mi->mi_actdata) continue; #if defined(TULIP_DEBUG) device_printf(sc->tulip_dev, "%s: %s: 0x%02x & 0x%02x == 0x%02x\n", __func__, tulip_mediums[media], TULIP_CSR_READ(sc, csr_gp) & 0xFF, mi->mi_actmask, mi->mi_actdata); #endif /* * It does! If this is the first media we detected, then * remember this media. If isn't the first, then there were * multiple matches which we equate to no match (since we don't * which to select (if any). */ if (last_media == TULIP_MEDIA_UNKNOWN) { last_media = media; } else if (last_media != media) { last_media = TULIP_MEDIA_UNKNOWN; } } return (last_media != TULIP_MEDIA_UNKNOWN) ? last_media : maybe_media; } #endif /* TULIP_DO_GPR_SENSE */ static tulip_link_status_t tulip_media_link_monitor(tulip_softc_t * const sc) { const tulip_media_info_t * const mi = sc->tulip_mediums[sc->tulip_media]; tulip_link_status_t linkup = TULIP_LINK_DOWN; TULIP_LOCK_ASSERT(sc); if (mi == NULL) { #if defined(DIAGNOSTIC) || defined(TULIP_DEBUG) panic("tulip_media_link_monitor: %s: botch at line %d\n", tulip_mediums[sc->tulip_media],__LINE__); #else return TULIP_LINK_UNKNOWN; #endif } /* * Have we seen some packets? If so, the link must be good. */ if ((sc->tulip_flags & (TULIP_RXACT|TULIP_LINKUP)) == (TULIP_RXACT|TULIP_LINKUP)) { sc->tulip_flags &= ~TULIP_RXACT; sc->tulip_probe_timeout = 3000; return TULIP_LINK_UP; } sc->tulip_flags &= ~TULIP_RXACT; if (mi->mi_type == TULIP_MEDIAINFO_MII) { u_int32_t status; /* * Read the PHY status register. */ status = tulip_mii_readreg(sc, sc->tulip_phyaddr, PHYREG_STATUS); if (status & PHYSTS_AUTONEG_DONE) { /* * If the PHY has completed autonegotiation, see the if the * remote systems abilities have changed. If so, upgrade or * downgrade as appropriate. */ u_int32_t abilities = tulip_mii_readreg(sc, sc->tulip_phyaddr, PHYREG_AUTONEG_ABILITIES); abilities = (abilities << 6) & status; if (abilities != sc->tulip_abilities) { #if defined(TULIP_DEBUG) loudprintf("%s(phy%d): autonegotiation changed: 0x%04x -> 0x%04x\n", ifp->if_xname, sc->tulip_phyaddr, sc->tulip_abilities, abilities); #endif if (tulip_mii_map_abilities(sc, abilities)) { tulip_linkup(sc, sc->tulip_probe_media); return TULIP_LINK_UP; } /* * if we had selected media because of autonegotiation, * we need to probe for the new media. */ sc->tulip_probe_state = TULIP_PROBE_INACTIVE; if (sc->tulip_flags & TULIP_DIDNWAY) return TULIP_LINK_DOWN; } } /* * The link is now up. If was down, say its back up. */ if ((status & (PHYSTS_LINK_UP|PHYSTS_REMOTE_FAULT)) == PHYSTS_LINK_UP) linkup = TULIP_LINK_UP; } else if (mi->mi_type == TULIP_MEDIAINFO_GPR) { /* * No activity sensor? Assume all's well. */ if (mi->mi_actmask == 0) return TULIP_LINK_UNKNOWN; /* * Does the activity data match? */ if ((TULIP_CSR_READ(sc, csr_gp) & mi->mi_actmask) == mi->mi_actdata) linkup = TULIP_LINK_UP; } else if (mi->mi_type == TULIP_MEDIAINFO_SIA) { /* * Assume non TP ok for now. */ if (!TULIP_IS_MEDIA_TP(sc->tulip_media)) return TULIP_LINK_UNKNOWN; if ((TULIP_CSR_READ(sc, csr_sia_status) & TULIP_SIASTS_LINKFAIL) == 0) linkup = TULIP_LINK_UP; #if defined(TULIP_DEBUG) if (sc->tulip_probe_timeout <= 0) device_printf(sc->tulip_dev, "sia status = 0x%08x\n", TULIP_CSR_READ(sc, csr_sia_status)); #endif } else if (mi->mi_type == TULIP_MEDIAINFO_SYM) { return TULIP_LINK_UNKNOWN; } /* * We will wait for 3 seconds until the link goes into suspect mode. */ if (sc->tulip_flags & TULIP_LINKUP) { if (linkup == TULIP_LINK_UP) sc->tulip_probe_timeout = 3000; if (sc->tulip_probe_timeout > 0) return TULIP_LINK_UP; sc->tulip_flags &= ~TULIP_LINKUP; device_printf(sc->tulip_dev, "link down: cable problem?\n"); } #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_link_downed++; #endif return TULIP_LINK_DOWN; } static void tulip_media_poll(tulip_softc_t * const sc, tulip_mediapoll_event_t event) { TULIP_LOCK_ASSERT(sc); #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_events[event]++; #endif if (sc->tulip_probe_state == TULIP_PROBE_INACTIVE && event == TULIP_MEDIAPOLL_TIMER) { switch (tulip_media_link_monitor(sc)) { case TULIP_LINK_DOWN: { /* * Link Monitor failed. Probe for new media. */ event = TULIP_MEDIAPOLL_LINKFAIL; break; } case TULIP_LINK_UP: { /* * Check again soon. */ tulip_timeout(sc); return; } case TULIP_LINK_UNKNOWN: { /* * We can't tell so don't bother. */ return; } } } if (event == TULIP_MEDIAPOLL_LINKFAIL) { if (sc->tulip_probe_state == TULIP_PROBE_INACTIVE) { if (TULIP_DO_AUTOSENSE(sc)) { #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_link_failures++; #endif sc->tulip_media = TULIP_MEDIA_UNKNOWN; if (sc->tulip_ifp->if_flags & IFF_UP) tulip_reset(sc); /* restart probe */ } return; } #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_link_pollintrs++; #endif } if (event == TULIP_MEDIAPOLL_START) { sc->tulip_ifp->if_drv_flags |= IFF_DRV_OACTIVE; if (sc->tulip_probe_state != TULIP_PROBE_INACTIVE) return; sc->tulip_probe_mediamask = 0; sc->tulip_probe_passes = 0; #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_media_probes++; #endif /* * If the SROM contained an explicit media to use, use it. */ sc->tulip_cmdmode &= ~(TULIP_CMD_RXRUN|TULIP_CMD_FULLDUPLEX); sc->tulip_flags |= TULIP_TRYNWAY|TULIP_PROBE1STPASS; sc->tulip_flags &= ~(TULIP_DIDNWAY|TULIP_PRINTMEDIA|TULIP_PRINTLINKUP); /* * connidx is defaulted to a media_unknown type. */ sc->tulip_probe_media = tulip_srom_conninfo[sc->tulip_connidx].sc_media; if (sc->tulip_probe_media != TULIP_MEDIA_UNKNOWN) { tulip_linkup(sc, sc->tulip_probe_media); tulip_timeout(sc); return; } if (sc->tulip_features & TULIP_HAVE_GPR) { sc->tulip_probe_state = TULIP_PROBE_GPRTEST; sc->tulip_probe_timeout = 2000; } else { sc->tulip_probe_media = TULIP_MEDIA_MAX; sc->tulip_probe_timeout = 0; sc->tulip_probe_state = TULIP_PROBE_MEDIATEST; } } /* * Ignore txprobe failures or spurious callbacks. */ if (event == TULIP_MEDIAPOLL_TXPROBE_FAILED && sc->tulip_probe_state != TULIP_PROBE_MEDIATEST) { sc->tulip_flags &= ~TULIP_TXPROBE_ACTIVE; return; } /* * If we really transmitted a packet, then that's the media we'll use. */ if (event == TULIP_MEDIAPOLL_TXPROBE_OK || event == TULIP_MEDIAPOLL_LINKPASS) { if (event == TULIP_MEDIAPOLL_LINKPASS) { /* XXX Check media status just to be sure */ sc->tulip_probe_media = TULIP_MEDIA_10BASET; #if defined(TULIP_DEBUG) } else { sc->tulip_dbg.dbg_txprobes_ok[sc->tulip_probe_media]++; #endif } tulip_linkup(sc, sc->tulip_probe_media); tulip_timeout(sc); return; } if (sc->tulip_probe_state == TULIP_PROBE_GPRTEST) { #if defined(TULIP_DO_GPR_SENSE) /* * Check for media via the general purpose register. * * Try to sense the media via the GPR. If the same value * occurs 3 times in a row then just use that. */ if (sc->tulip_probe_timeout > 0) { tulip_media_t new_probe_media = tulip_21140_gpr_media_sense(sc); #if defined(TULIP_DEBUG) device_printf(sc->tulip_dev, "%s: gpr sensing = %s\n", __func__, tulip_mediums[new_probe_media]); #endif if (new_probe_media != TULIP_MEDIA_UNKNOWN) { if (new_probe_media == sc->tulip_probe_media) { if (--sc->tulip_probe_count == 0) tulip_linkup(sc, sc->tulip_probe_media); } else { sc->tulip_probe_count = 10; } } sc->tulip_probe_media = new_probe_media; tulip_timeout(sc); return; } #endif /* TULIP_DO_GPR_SENSE */ /* * Brute force. We cycle through each of the media types * and try to transmit a packet. */ sc->tulip_probe_state = TULIP_PROBE_MEDIATEST; sc->tulip_probe_media = TULIP_MEDIA_MAX; sc->tulip_probe_timeout = 0; tulip_timeout(sc); return; } if (sc->tulip_probe_state != TULIP_PROBE_MEDIATEST && (sc->tulip_features & TULIP_HAVE_MII)) { tulip_media_t old_media = sc->tulip_probe_media; tulip_mii_autonegotiate(sc, sc->tulip_phyaddr); switch (sc->tulip_probe_state) { case TULIP_PROBE_FAILED: case TULIP_PROBE_MEDIATEST: { /* * Try the next media. */ sc->tulip_probe_mediamask |= sc->tulip_mediums[sc->tulip_probe_media]->mi_mediamask; sc->tulip_probe_timeout = 0; #ifdef notyet if (sc->tulip_probe_state == TULIP_PROBE_FAILED) break; if (sc->tulip_probe_media != tulip_mii_phy_readspecific(sc)) break; sc->tulip_probe_timeout = TULIP_IS_MEDIA_TP(sc->tulip_probe_media) ? 2500 : 300; #endif break; } case TULIP_PROBE_PHYAUTONEG: { return; } case TULIP_PROBE_INACTIVE: { /* * Only probe if we autonegotiated a media that hasn't failed. */ sc->tulip_probe_timeout = 0; if (sc->tulip_probe_mediamask & TULIP_BIT(sc->tulip_probe_media)) { sc->tulip_probe_media = old_media; break; } tulip_linkup(sc, sc->tulip_probe_media); tulip_timeout(sc); return; } default: { #if defined(DIAGNOSTIC) || defined(TULIP_DEBUG) panic("tulip_media_poll: botch at line %d\n", __LINE__); #endif break; } } } if (event == TULIP_MEDIAPOLL_TXPROBE_FAILED) { #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_txprobes_failed[sc->tulip_probe_media]++; #endif sc->tulip_flags &= ~TULIP_TXPROBE_ACTIVE; return; } /* * switch to another media if we tried this one enough. */ if (/* event == TULIP_MEDIAPOLL_TXPROBE_FAILED || */ sc->tulip_probe_timeout <= 0) { #if defined(TULIP_DEBUG) if (sc->tulip_probe_media == TULIP_MEDIA_UNKNOWN) { device_printf(sc->tulip_dev, "poll media unknown!\n"); sc->tulip_probe_media = TULIP_MEDIA_MAX; } #endif /* * Find the next media type to check for. Full Duplex * types are not allowed. */ do { sc->tulip_probe_media -= 1; if (sc->tulip_probe_media == TULIP_MEDIA_UNKNOWN) { if (++sc->tulip_probe_passes == 3) { device_printf(sc->tulip_dev, "autosense failed: cable problem?\n"); if ((sc->tulip_ifp->if_flags & IFF_UP) == 0) { sc->tulip_ifp->if_drv_flags &= ~IFF_DRV_RUNNING; sc->tulip_probe_state = TULIP_PROBE_INACTIVE; return; } } sc->tulip_flags ^= TULIP_TRYNWAY; /* XXX */ sc->tulip_probe_mediamask = 0; sc->tulip_probe_media = TULIP_MEDIA_MAX - 1; } } while (sc->tulip_mediums[sc->tulip_probe_media] == NULL || (sc->tulip_probe_mediamask & TULIP_BIT(sc->tulip_probe_media)) || TULIP_IS_MEDIA_FD(sc->tulip_probe_media)); #if defined(TULIP_DEBUG) device_printf(sc->tulip_dev, "%s: probing %s\n", event == TULIP_MEDIAPOLL_TXPROBE_FAILED ? "txprobe failed" : "timeout", tulip_mediums[sc->tulip_probe_media]); #endif sc->tulip_probe_timeout = TULIP_IS_MEDIA_TP(sc->tulip_probe_media) ? 2500 : 1000; sc->tulip_probe_state = TULIP_PROBE_MEDIATEST; sc->tulip_probe.probe_txprobes = 0; tulip_reset(sc); tulip_media_set(sc, sc->tulip_probe_media); sc->tulip_flags &= ~TULIP_TXPROBE_ACTIVE; } tulip_timeout(sc); /* * If this is hanging off a phy, we know are doing NWAY and we have * forced the phy to a specific speed. Wait for link up before * before sending a packet. */ switch (sc->tulip_mediums[sc->tulip_probe_media]->mi_type) { case TULIP_MEDIAINFO_MII: { if (sc->tulip_probe_media != tulip_mii_phy_readspecific(sc)) return; break; } case TULIP_MEDIAINFO_SIA: { if (TULIP_IS_MEDIA_TP(sc->tulip_probe_media)) { if (TULIP_CSR_READ(sc, csr_sia_status) & TULIP_SIASTS_LINKFAIL) return; tulip_linkup(sc, sc->tulip_probe_media); #ifdef notyet if (sc->tulip_features & TULIP_HAVE_MII) tulip_timeout(sc); #endif return; } break; } case TULIP_MEDIAINFO_RESET: case TULIP_MEDIAINFO_SYM: case TULIP_MEDIAINFO_NONE: case TULIP_MEDIAINFO_GPR: { break; } } /* * Try to send a packet. */ tulip_txprobe(sc); } static void tulip_media_select(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); if (sc->tulip_features & TULIP_HAVE_GPR) { TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_PINSET|sc->tulip_gpinit); DELAY(10); TULIP_CSR_WRITE(sc, csr_gp, sc->tulip_gpdata); } /* * If this board has no media, just return */ if (sc->tulip_features & TULIP_HAVE_NOMEDIA) return; if (sc->tulip_media == TULIP_MEDIA_UNKNOWN) { TULIP_CSR_WRITE(sc, csr_intr, sc->tulip_intrmask); (*sc->tulip_boardsw->bd_media_poll)(sc, TULIP_MEDIAPOLL_START); } else { tulip_media_set(sc, sc->tulip_media); } } static void tulip_21040_mediainfo_init(tulip_softc_t * const sc, tulip_media_t media) { TULIP_LOCK_ASSERT(sc); sc->tulip_cmdmode |= TULIP_CMD_CAPTREFFCT|TULIP_CMD_THRSHLD160 |TULIP_CMD_BACKOFFCTR; sc->tulip_ifp->if_baudrate = 10000000; if (media == TULIP_MEDIA_10BASET || media == TULIP_MEDIA_UNKNOWN) { TULIP_MEDIAINFO_SIA_INIT(sc, &sc->tulip_mediainfo[0], 21040, 10BASET); TULIP_MEDIAINFO_SIA_INIT(sc, &sc->tulip_mediainfo[1], 21040, 10BASET_FD); sc->tulip_intrmask |= TULIP_STS_LINKPASS|TULIP_STS_LINKFAIL; } if (media == TULIP_MEDIA_AUIBNC || media == TULIP_MEDIA_UNKNOWN) { TULIP_MEDIAINFO_SIA_INIT(sc, &sc->tulip_mediainfo[2], 21040, AUIBNC); } if (media == TULIP_MEDIA_UNKNOWN) { TULIP_MEDIAINFO_SIA_INIT(sc, &sc->tulip_mediainfo[3], 21040, EXTSIA); } } static void tulip_21040_media_probe(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); tulip_21040_mediainfo_init(sc, TULIP_MEDIA_UNKNOWN); return; } static void tulip_21040_10baset_only_media_probe(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); tulip_21040_mediainfo_init(sc, TULIP_MEDIA_10BASET); tulip_media_set(sc, TULIP_MEDIA_10BASET); sc->tulip_media = TULIP_MEDIA_10BASET; } static void tulip_21040_10baset_only_media_select(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); sc->tulip_flags |= TULIP_LINKUP; if (sc->tulip_media == TULIP_MEDIA_10BASET_FD) { sc->tulip_cmdmode |= TULIP_CMD_FULLDUPLEX; sc->tulip_flags &= ~TULIP_SQETEST; } else { sc->tulip_cmdmode &= ~TULIP_CMD_FULLDUPLEX; sc->tulip_flags |= TULIP_SQETEST; } tulip_media_set(sc, sc->tulip_media); } static void tulip_21040_auibnc_only_media_probe(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); tulip_21040_mediainfo_init(sc, TULIP_MEDIA_AUIBNC); sc->tulip_flags |= TULIP_SQETEST|TULIP_LINKUP; tulip_media_set(sc, TULIP_MEDIA_AUIBNC); sc->tulip_media = TULIP_MEDIA_AUIBNC; } static void tulip_21040_auibnc_only_media_select(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); tulip_media_set(sc, TULIP_MEDIA_AUIBNC); sc->tulip_cmdmode &= ~TULIP_CMD_FULLDUPLEX; } static const tulip_boardsw_t tulip_21040_boardsw = { TULIP_21040_GENERIC, tulip_21040_media_probe, tulip_media_select, tulip_media_poll, }; static const tulip_boardsw_t tulip_21040_10baset_only_boardsw = { TULIP_21040_GENERIC, tulip_21040_10baset_only_media_probe, tulip_21040_10baset_only_media_select, NULL, }; static const tulip_boardsw_t tulip_21040_auibnc_only_boardsw = { TULIP_21040_GENERIC, tulip_21040_auibnc_only_media_probe, tulip_21040_auibnc_only_media_select, NULL, }; static void tulip_21041_mediainfo_init(tulip_softc_t * const sc) { tulip_media_info_t * const mi = sc->tulip_mediainfo; TULIP_LOCK_ASSERT(sc); #ifdef notyet if (sc->tulip_revinfo >= 0x20) { TULIP_MEDIAINFO_SIA_INIT(sc, &mi[0], 21041P2, 10BASET); TULIP_MEDIAINFO_SIA_INIT(sc, &mi[1], 21041P2, 10BASET_FD); TULIP_MEDIAINFO_SIA_INIT(sc, &mi[0], 21041P2, AUI); TULIP_MEDIAINFO_SIA_INIT(sc, &mi[1], 21041P2, BNC); return; } #endif TULIP_MEDIAINFO_SIA_INIT(sc, &mi[0], 21041, 10BASET); TULIP_MEDIAINFO_SIA_INIT(sc, &mi[1], 21041, 10BASET_FD); TULIP_MEDIAINFO_SIA_INIT(sc, &mi[2], 21041, AUI); TULIP_MEDIAINFO_SIA_INIT(sc, &mi[3], 21041, BNC); } static void tulip_21041_media_probe(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); sc->tulip_ifp->if_baudrate = 10000000; sc->tulip_cmdmode |= TULIP_CMD_CAPTREFFCT|TULIP_CMD_ENHCAPTEFFCT |TULIP_CMD_THRSHLD160|TULIP_CMD_BACKOFFCTR; sc->tulip_intrmask |= TULIP_STS_LINKPASS|TULIP_STS_LINKFAIL; tulip_21041_mediainfo_init(sc); } static void tulip_21041_media_poll(tulip_softc_t * const sc, const tulip_mediapoll_event_t event) { u_int32_t sia_status; TULIP_LOCK_ASSERT(sc); #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_events[event]++; #endif if (event == TULIP_MEDIAPOLL_LINKFAIL) { if (sc->tulip_probe_state != TULIP_PROBE_INACTIVE || !TULIP_DO_AUTOSENSE(sc)) return; sc->tulip_media = TULIP_MEDIA_UNKNOWN; tulip_reset(sc); /* start probe */ return; } /* * If we've been been asked to start a poll or link change interrupt * restart the probe (and reset the tulip to a known state). */ if (event == TULIP_MEDIAPOLL_START) { sc->tulip_ifp->if_drv_flags |= IFF_DRV_OACTIVE; sc->tulip_cmdmode &= ~(TULIP_CMD_FULLDUPLEX|TULIP_CMD_RXRUN); #ifdef notyet if (sc->tulip_revinfo >= 0x20) { sc->tulip_cmdmode |= TULIP_CMD_FULLDUPLEX; sc->tulip_flags |= TULIP_DIDNWAY; } #endif TULIP_CSR_WRITE(sc, csr_command, sc->tulip_cmdmode); sc->tulip_probe_state = TULIP_PROBE_MEDIATEST; sc->tulip_probe_media = TULIP_MEDIA_10BASET; sc->tulip_probe_timeout = TULIP_21041_PROBE_10BASET_TIMEOUT; tulip_media_set(sc, TULIP_MEDIA_10BASET); tulip_timeout(sc); return; } if (sc->tulip_probe_state == TULIP_PROBE_INACTIVE) return; if (event == TULIP_MEDIAPOLL_TXPROBE_OK) { #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_txprobes_ok[sc->tulip_probe_media]++; #endif tulip_linkup(sc, sc->tulip_probe_media); return; } sia_status = TULIP_CSR_READ(sc, csr_sia_status); TULIP_CSR_WRITE(sc, csr_sia_status, sia_status); if ((sia_status & TULIP_SIASTS_LINKFAIL) == 0) { if (sc->tulip_revinfo >= 0x20) { if (sia_status & (PHYSTS_10BASET_FD << (16 - 6))) sc->tulip_probe_media = TULIP_MEDIA_10BASET_FD; } /* * If the link has passed LinkPass, 10baseT is the * proper media to use. */ tulip_linkup(sc, sc->tulip_probe_media); return; } /* * wait for up to 2.4 seconds for the link to reach pass state. * Only then start scanning the other media for activity. * choose media with receive activity over those without. */ if (sc->tulip_probe_media == TULIP_MEDIA_10BASET) { if (event != TULIP_MEDIAPOLL_TIMER) return; if (sc->tulip_probe_timeout > 0 && (sia_status & TULIP_SIASTS_OTHERRXACTIVITY) == 0) { tulip_timeout(sc); return; } sc->tulip_probe_timeout = TULIP_21041_PROBE_AUIBNC_TIMEOUT; sc->tulip_flags |= TULIP_WANTRXACT; if (sia_status & TULIP_SIASTS_OTHERRXACTIVITY) { sc->tulip_probe_media = TULIP_MEDIA_BNC; } else { sc->tulip_probe_media = TULIP_MEDIA_AUI; } tulip_media_set(sc, sc->tulip_probe_media); tulip_timeout(sc); return; } /* * If we failed, clear the txprobe active flag. */ if (event == TULIP_MEDIAPOLL_TXPROBE_FAILED) sc->tulip_flags &= ~TULIP_TXPROBE_ACTIVE; if (event == TULIP_MEDIAPOLL_TIMER) { /* * If we've received something, then that's our link! */ if (sc->tulip_flags & TULIP_RXACT) { tulip_linkup(sc, sc->tulip_probe_media); return; } /* * if no txprobe active */ if ((sc->tulip_flags & TULIP_TXPROBE_ACTIVE) == 0 && ((sc->tulip_flags & TULIP_WANTRXACT) == 0 || (sia_status & TULIP_SIASTS_RXACTIVITY))) { sc->tulip_probe_timeout = TULIP_21041_PROBE_AUIBNC_TIMEOUT; tulip_txprobe(sc); tulip_timeout(sc); return; } /* * Take 2 passes through before deciding to not * wait for receive activity. Then take another * two passes before spitting out a warning. */ if (sc->tulip_probe_timeout <= 0) { if (sc->tulip_flags & TULIP_WANTRXACT) { sc->tulip_flags &= ~TULIP_WANTRXACT; sc->tulip_probe_timeout = TULIP_21041_PROBE_AUIBNC_TIMEOUT; } else { device_printf(sc->tulip_dev, "autosense failed: cable problem?\n"); if ((sc->tulip_ifp->if_flags & IFF_UP) == 0) { sc->tulip_ifp->if_drv_flags &= ~IFF_DRV_RUNNING; sc->tulip_probe_state = TULIP_PROBE_INACTIVE; return; } } } } /* * Since this media failed to probe, try the other one. */ sc->tulip_probe_timeout = TULIP_21041_PROBE_AUIBNC_TIMEOUT; if (sc->tulip_probe_media == TULIP_MEDIA_AUI) { sc->tulip_probe_media = TULIP_MEDIA_BNC; } else { sc->tulip_probe_media = TULIP_MEDIA_AUI; } tulip_media_set(sc, sc->tulip_probe_media); sc->tulip_flags &= ~TULIP_TXPROBE_ACTIVE; tulip_timeout(sc); } static const tulip_boardsw_t tulip_21041_boardsw = { TULIP_21041_GENERIC, tulip_21041_media_probe, tulip_media_select, tulip_21041_media_poll }; static const tulip_phy_attr_t tulip_mii_phy_attrlist[] = { { 0x20005c00, 0, /* 08-00-17 */ { { 0x19, 0x0040, 0x0040 }, /* 10TX */ { 0x19, 0x0040, 0x0000 }, /* 100TX */ }, #if defined(TULIP_DEBUG) "NS DP83840", #endif }, { 0x0281F400, 0, /* 00-A0-7D */ { { 0x12, 0x0010, 0x0000 }, /* 10T */ { }, /* 100TX */ { 0x12, 0x0010, 0x0010 }, /* 100T4 */ { 0x12, 0x0008, 0x0008 }, /* FULL_DUPLEX */ }, #if defined(TULIP_DEBUG) "Seeq 80C240" #endif }, #if 0 { 0x0015F420, 0, /* 00-A0-7D */ { { 0x12, 0x0010, 0x0000 }, /* 10T */ { }, /* 100TX */ { 0x12, 0x0010, 0x0010 }, /* 100T4 */ { 0x12, 0x0008, 0x0008 }, /* FULL_DUPLEX */ }, #if defined(TULIP_DEBUG) "Broadcom BCM5000" #endif }, #endif { 0x0281F400, 0, /* 00-A0-BE */ { { 0x11, 0x8000, 0x0000 }, /* 10T */ { 0x11, 0x8000, 0x8000 }, /* 100TX */ { }, /* 100T4 */ { 0x11, 0x4000, 0x4000 }, /* FULL_DUPLEX */ }, #if defined(TULIP_DEBUG) "ICS 1890" #endif }, { 0 } }; static tulip_media_t tulip_mii_phy_readspecific(tulip_softc_t * const sc) { const tulip_phy_attr_t *attr; u_int16_t data; u_int32_t id; unsigned idx = 0; static const tulip_media_t table[] = { TULIP_MEDIA_UNKNOWN, TULIP_MEDIA_10BASET, TULIP_MEDIA_100BASETX, TULIP_MEDIA_100BASET4, TULIP_MEDIA_UNKNOWN, TULIP_MEDIA_10BASET_FD, TULIP_MEDIA_100BASETX_FD, TULIP_MEDIA_UNKNOWN }; TULIP_LOCK_ASSERT(sc); /* * Don't read phy specific registers if link is not up. */ data = tulip_mii_readreg(sc, sc->tulip_phyaddr, PHYREG_STATUS); if ((data & (PHYSTS_LINK_UP|PHYSTS_EXTENDED_REGS)) != (PHYSTS_LINK_UP|PHYSTS_EXTENDED_REGS)) return TULIP_MEDIA_UNKNOWN; id = (tulip_mii_readreg(sc, sc->tulip_phyaddr, PHYREG_IDLOW) << 16) | tulip_mii_readreg(sc, sc->tulip_phyaddr, PHYREG_IDHIGH); for (attr = tulip_mii_phy_attrlist;; attr++) { if (attr->attr_id == 0) return TULIP_MEDIA_UNKNOWN; if ((id & ~0x0F) == attr->attr_id) break; } if (attr->attr_modes[PHY_MODE_100TX].pm_regno) { const tulip_phy_modedata_t * const pm = &attr->attr_modes[PHY_MODE_100TX]; data = tulip_mii_readreg(sc, sc->tulip_phyaddr, pm->pm_regno); if ((data & pm->pm_mask) == pm->pm_value) idx = 2; } if (idx == 0 && attr->attr_modes[PHY_MODE_100T4].pm_regno) { const tulip_phy_modedata_t * const pm = &attr->attr_modes[PHY_MODE_100T4]; data = tulip_mii_readreg(sc, sc->tulip_phyaddr, pm->pm_regno); if ((data & pm->pm_mask) == pm->pm_value) idx = 3; } if (idx == 0 && attr->attr_modes[PHY_MODE_10T].pm_regno) { const tulip_phy_modedata_t * const pm = &attr->attr_modes[PHY_MODE_10T]; data = tulip_mii_readreg(sc, sc->tulip_phyaddr, pm->pm_regno); if ((data & pm->pm_mask) == pm->pm_value) idx = 1; } if (idx != 0 && attr->attr_modes[PHY_MODE_FULLDUPLEX].pm_regno) { const tulip_phy_modedata_t * const pm = &attr->attr_modes[PHY_MODE_FULLDUPLEX]; data = tulip_mii_readreg(sc, sc->tulip_phyaddr, pm->pm_regno); idx += ((data & pm->pm_mask) == pm->pm_value ? 4 : 0); } return table[idx]; } static unsigned tulip_mii_get_phyaddr(tulip_softc_t * const sc, unsigned offset) { unsigned phyaddr; TULIP_LOCK_ASSERT(sc); for (phyaddr = 1; phyaddr < 32; phyaddr++) { unsigned status = tulip_mii_readreg(sc, phyaddr, PHYREG_STATUS); if (status == 0 || status == 0xFFFF || status < PHYSTS_10BASET) continue; if (offset == 0) return phyaddr; offset--; } if (offset == 0) { unsigned status = tulip_mii_readreg(sc, 0, PHYREG_STATUS); if (status == 0 || status == 0xFFFF || status < PHYSTS_10BASET) return TULIP_MII_NOPHY; return 0; } return TULIP_MII_NOPHY; } static int tulip_mii_map_abilities(tulip_softc_t * const sc, unsigned abilities) { TULIP_LOCK_ASSERT(sc); sc->tulip_abilities = abilities; if (abilities & PHYSTS_100BASETX_FD) { sc->tulip_probe_media = TULIP_MEDIA_100BASETX_FD; } else if (abilities & PHYSTS_100BASET4) { sc->tulip_probe_media = TULIP_MEDIA_100BASET4; } else if (abilities & PHYSTS_100BASETX) { sc->tulip_probe_media = TULIP_MEDIA_100BASETX; } else if (abilities & PHYSTS_10BASET_FD) { sc->tulip_probe_media = TULIP_MEDIA_10BASET_FD; } else if (abilities & PHYSTS_10BASET) { sc->tulip_probe_media = TULIP_MEDIA_10BASET; } else { sc->tulip_probe_state = TULIP_PROBE_MEDIATEST; return 0; } sc->tulip_probe_state = TULIP_PROBE_INACTIVE; return 1; } static void tulip_mii_autonegotiate(tulip_softc_t * const sc, const unsigned phyaddr) { struct ifnet *ifp = sc->tulip_ifp; TULIP_LOCK_ASSERT(sc); switch (sc->tulip_probe_state) { case TULIP_PROBE_MEDIATEST: case TULIP_PROBE_INACTIVE: { sc->tulip_flags |= TULIP_DIDNWAY; tulip_mii_writereg(sc, phyaddr, PHYREG_CONTROL, PHYCTL_RESET); sc->tulip_probe_timeout = 3000; sc->tulip_intrmask |= TULIP_STS_ABNRMLINTR|TULIP_STS_NORMALINTR; sc->tulip_probe_state = TULIP_PROBE_PHYRESET; } /* FALLTHROUGH */ case TULIP_PROBE_PHYRESET: { u_int32_t status; u_int32_t data = tulip_mii_readreg(sc, phyaddr, PHYREG_CONTROL); if (data & PHYCTL_RESET) { if (sc->tulip_probe_timeout > 0) { tulip_timeout(sc); return; } printf("%s(phy%d): error: reset of PHY never completed!\n", ifp->if_xname, phyaddr); sc->tulip_flags &= ~TULIP_TXPROBE_ACTIVE; sc->tulip_probe_state = TULIP_PROBE_FAILED; sc->tulip_ifp->if_flags &= ~IFF_UP; sc->tulip_ifp->if_drv_flags &= ~IFF_DRV_RUNNING; return; } status = tulip_mii_readreg(sc, phyaddr, PHYREG_STATUS); if ((status & PHYSTS_CAN_AUTONEG) == 0) { #if defined(TULIP_DEBUG) loudprintf("%s(phy%d): autonegotiation disabled\n", ifp->if_xname, phyaddr); #endif sc->tulip_flags &= ~TULIP_DIDNWAY; sc->tulip_probe_state = TULIP_PROBE_MEDIATEST; return; } if (tulip_mii_readreg(sc, phyaddr, PHYREG_AUTONEG_ADVERTISEMENT) != ((status >> 6) | 0x01)) tulip_mii_writereg(sc, phyaddr, PHYREG_AUTONEG_ADVERTISEMENT, (status >> 6) | 0x01); tulip_mii_writereg(sc, phyaddr, PHYREG_CONTROL, data|PHYCTL_AUTONEG_RESTART|PHYCTL_AUTONEG_ENABLE); data = tulip_mii_readreg(sc, phyaddr, PHYREG_CONTROL); #if defined(TULIP_DEBUG) if ((data & PHYCTL_AUTONEG_ENABLE) == 0) loudprintf("%s(phy%d): oops: enable autonegotiation failed: 0x%04x\n", ifp->if_xname, phyaddr, data); else loudprintf("%s(phy%d): autonegotiation restarted: 0x%04x\n", ifp->if_xname, phyaddr, data); sc->tulip_dbg.dbg_nway_starts++; #endif sc->tulip_probe_state = TULIP_PROBE_PHYAUTONEG; sc->tulip_probe_timeout = 3000; } /* FALLTHROUGH */ case TULIP_PROBE_PHYAUTONEG: { u_int32_t status = tulip_mii_readreg(sc, phyaddr, PHYREG_STATUS); u_int32_t data; if ((status & PHYSTS_AUTONEG_DONE) == 0) { if (sc->tulip_probe_timeout > 0) { tulip_timeout(sc); return; } #if defined(TULIP_DEBUG) loudprintf("%s(phy%d): autonegotiation timeout: sts=0x%04x, ctl=0x%04x\n", ifp->if_xname, phyaddr, status, tulip_mii_readreg(sc, phyaddr, PHYREG_CONTROL)); #endif sc->tulip_flags &= ~TULIP_DIDNWAY; sc->tulip_probe_state = TULIP_PROBE_MEDIATEST; return; } data = tulip_mii_readreg(sc, phyaddr, PHYREG_AUTONEG_ABILITIES); #if defined(TULIP_DEBUG) loudprintf("%s(phy%d): autonegotiation complete: 0x%04x\n", ifp->if_xname, phyaddr, data); #endif data = (data << 6) & status; if (!tulip_mii_map_abilities(sc, data)) sc->tulip_flags &= ~TULIP_DIDNWAY; return; } default: { #if defined(DIAGNOSTIC) panic("tulip_media_poll: botch at line %d\n", __LINE__); #endif break; } } #if defined(TULIP_DEBUG) loudprintf("%s(phy%d): autonegotiation failure: state = %d\n", ifp->if_xname, phyaddr, sc->tulip_probe_state); sc->tulip_dbg.dbg_nway_failures++; #endif } static void tulip_2114x_media_preset(tulip_softc_t * const sc) { const tulip_media_info_t *mi = NULL; tulip_media_t media = sc->tulip_media; TULIP_LOCK_ASSERT(sc); if (sc->tulip_probe_state == TULIP_PROBE_INACTIVE) media = sc->tulip_media; else media = sc->tulip_probe_media; sc->tulip_cmdmode &= ~TULIP_CMD_PORTSELECT; sc->tulip_flags &= ~TULIP_SQETEST; if (media != TULIP_MEDIA_UNKNOWN && media != TULIP_MEDIA_MAX) { #if defined(TULIP_DEBUG) if (media < TULIP_MEDIA_MAX && sc->tulip_mediums[media] != NULL) { #endif mi = sc->tulip_mediums[media]; if (mi->mi_type == TULIP_MEDIAINFO_MII) { sc->tulip_cmdmode |= TULIP_CMD_PORTSELECT; } else if (mi->mi_type == TULIP_MEDIAINFO_GPR || mi->mi_type == TULIP_MEDIAINFO_SYM) { sc->tulip_cmdmode &= ~TULIP_GPR_CMDBITS; sc->tulip_cmdmode |= mi->mi_cmdmode; } else if (mi->mi_type == TULIP_MEDIAINFO_SIA) { TULIP_CSR_WRITE(sc, csr_sia_connectivity, TULIP_SIACONN_RESET); } #if defined(TULIP_DEBUG) } else { device_printf(sc->tulip_dev, "preset: bad media %d!\n", media); } #endif } switch (media) { case TULIP_MEDIA_BNC: case TULIP_MEDIA_AUI: case TULIP_MEDIA_10BASET: { sc->tulip_cmdmode &= ~TULIP_CMD_FULLDUPLEX; sc->tulip_cmdmode |= TULIP_CMD_TXTHRSHLDCTL; sc->tulip_ifp->if_baudrate = 10000000; sc->tulip_flags |= TULIP_SQETEST; break; } case TULIP_MEDIA_10BASET_FD: { sc->tulip_cmdmode |= TULIP_CMD_FULLDUPLEX|TULIP_CMD_TXTHRSHLDCTL; sc->tulip_ifp->if_baudrate = 10000000; break; } case TULIP_MEDIA_100BASEFX: case TULIP_MEDIA_100BASET4: case TULIP_MEDIA_100BASETX: { sc->tulip_cmdmode &= ~(TULIP_CMD_FULLDUPLEX|TULIP_CMD_TXTHRSHLDCTL); sc->tulip_cmdmode |= TULIP_CMD_PORTSELECT; sc->tulip_ifp->if_baudrate = 100000000; break; } case TULIP_MEDIA_100BASEFX_FD: case TULIP_MEDIA_100BASETX_FD: { sc->tulip_cmdmode |= TULIP_CMD_FULLDUPLEX|TULIP_CMD_PORTSELECT; sc->tulip_cmdmode &= ~TULIP_CMD_TXTHRSHLDCTL; sc->tulip_ifp->if_baudrate = 100000000; break; } default: { break; } } TULIP_CSR_WRITE(sc, csr_command, sc->tulip_cmdmode); } /* ******************************************************************** * Start of 21140/21140A support which does not use the MII interface */ static void tulip_null_media_poll(tulip_softc_t * const sc, tulip_mediapoll_event_t event) { #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_events[event]++; #endif #if defined(DIAGNOSTIC) device_printf(sc->tulip_dev, "botch(media_poll) at line %d\n", __LINE__); #endif } static inline void tulip_21140_mediainit(tulip_softc_t * const sc, tulip_media_info_t * const mip, tulip_media_t const media, unsigned gpdata, unsigned cmdmode) { TULIP_LOCK_ASSERT(sc); sc->tulip_mediums[media] = mip; mip->mi_type = TULIP_MEDIAINFO_GPR; mip->mi_cmdmode = cmdmode; mip->mi_gpdata = gpdata; } static void tulip_21140_evalboard_media_probe(tulip_softc_t * const sc) { tulip_media_info_t *mip = sc->tulip_mediainfo; TULIP_LOCK_ASSERT(sc); sc->tulip_gpinit = TULIP_GP_EB_PINS; sc->tulip_gpdata = TULIP_GP_EB_INIT; TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_EB_PINS); TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_EB_INIT); TULIP_CSR_WRITE(sc, csr_command, TULIP_CSR_READ(sc, csr_command) | TULIP_CMD_PORTSELECT | TULIP_CMD_PCSFUNCTION | TULIP_CMD_SCRAMBLER | TULIP_CMD_MUSTBEONE); TULIP_CSR_WRITE(sc, csr_command, TULIP_CSR_READ(sc, csr_command) & ~TULIP_CMD_TXTHRSHLDCTL); DELAY(1000000); if ((TULIP_CSR_READ(sc, csr_gp) & TULIP_GP_EB_OK100) != 0) { sc->tulip_media = TULIP_MEDIA_10BASET; } else { sc->tulip_media = TULIP_MEDIA_100BASETX; } tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_10BASET, TULIP_GP_EB_INIT, TULIP_CMD_TXTHRSHLDCTL); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_10BASET_FD, TULIP_GP_EB_INIT, TULIP_CMD_TXTHRSHLDCTL|TULIP_CMD_FULLDUPLEX); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX, TULIP_GP_EB_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX_FD, TULIP_GP_EB_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER|TULIP_CMD_FULLDUPLEX); } static const tulip_boardsw_t tulip_21140_eb_boardsw = { TULIP_21140_DEC_EB, tulip_21140_evalboard_media_probe, tulip_media_select, tulip_null_media_poll, tulip_2114x_media_preset, }; static void tulip_21140_accton_media_probe(tulip_softc_t * const sc) { tulip_media_info_t *mip = sc->tulip_mediainfo; unsigned gpdata; TULIP_LOCK_ASSERT(sc); sc->tulip_gpinit = TULIP_GP_EB_PINS; sc->tulip_gpdata = TULIP_GP_EB_INIT; TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_EB_PINS); TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_EB_INIT); TULIP_CSR_WRITE(sc, csr_command, TULIP_CSR_READ(sc, csr_command) | TULIP_CMD_PORTSELECT | TULIP_CMD_PCSFUNCTION | TULIP_CMD_SCRAMBLER | TULIP_CMD_MUSTBEONE); TULIP_CSR_WRITE(sc, csr_command, TULIP_CSR_READ(sc, csr_command) & ~TULIP_CMD_TXTHRSHLDCTL); DELAY(1000000); gpdata = TULIP_CSR_READ(sc, csr_gp); if ((gpdata & TULIP_GP_EN1207_UTP_INIT) == 0) { sc->tulip_media = TULIP_MEDIA_10BASET; } else { if ((gpdata & TULIP_GP_EN1207_BNC_INIT) == 0) { sc->tulip_media = TULIP_MEDIA_BNC; } else { sc->tulip_media = TULIP_MEDIA_100BASETX; } } tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_BNC, TULIP_GP_EN1207_BNC_INIT, TULIP_CMD_TXTHRSHLDCTL); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_10BASET, TULIP_GP_EN1207_UTP_INIT, TULIP_CMD_TXTHRSHLDCTL); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_10BASET_FD, TULIP_GP_EN1207_UTP_INIT, TULIP_CMD_TXTHRSHLDCTL|TULIP_CMD_FULLDUPLEX); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX, TULIP_GP_EN1207_100_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX_FD, TULIP_GP_EN1207_100_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER|TULIP_CMD_FULLDUPLEX); } static const tulip_boardsw_t tulip_21140_accton_boardsw = { TULIP_21140_EN1207, tulip_21140_accton_media_probe, tulip_media_select, tulip_null_media_poll, tulip_2114x_media_preset, }; static void tulip_21140_smc9332_media_probe(tulip_softc_t * const sc) { tulip_media_info_t *mip = sc->tulip_mediainfo; int idx, cnt = 0; TULIP_LOCK_ASSERT(sc); TULIP_CSR_WRITE(sc, csr_command, TULIP_CMD_PORTSELECT|TULIP_CMD_MUSTBEONE); TULIP_CSR_WRITE(sc, csr_busmode, TULIP_BUSMODE_SWRESET); DELAY(10); /* Wait 10 microseconds (actually 50 PCI cycles but at 33MHz that comes to two microseconds but wait a bit longer anyways) */ TULIP_CSR_WRITE(sc, csr_command, TULIP_CMD_PORTSELECT | TULIP_CMD_PCSFUNCTION | TULIP_CMD_SCRAMBLER | TULIP_CMD_MUSTBEONE); sc->tulip_gpinit = TULIP_GP_SMC_9332_PINS; sc->tulip_gpdata = TULIP_GP_SMC_9332_INIT; TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_SMC_9332_PINS|TULIP_GP_PINSET); TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_SMC_9332_INIT); DELAY(200000); for (idx = 1000; idx > 0; idx--) { u_int32_t csr = TULIP_CSR_READ(sc, csr_gp); if ((csr & (TULIP_GP_SMC_9332_OK10|TULIP_GP_SMC_9332_OK100)) == (TULIP_GP_SMC_9332_OK10|TULIP_GP_SMC_9332_OK100)) { if (++cnt > 100) break; } else if ((csr & TULIP_GP_SMC_9332_OK10) == 0) { break; } else { cnt = 0; } DELAY(1000); } sc->tulip_media = cnt > 100 ? TULIP_MEDIA_100BASETX : TULIP_MEDIA_10BASET; tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX, TULIP_GP_SMC_9332_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX_FD, TULIP_GP_SMC_9332_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER|TULIP_CMD_FULLDUPLEX); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_10BASET, TULIP_GP_SMC_9332_INIT, TULIP_CMD_TXTHRSHLDCTL); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_10BASET_FD, TULIP_GP_SMC_9332_INIT, TULIP_CMD_TXTHRSHLDCTL|TULIP_CMD_FULLDUPLEX); } static const tulip_boardsw_t tulip_21140_smc9332_boardsw = { TULIP_21140_SMC_9332, tulip_21140_smc9332_media_probe, tulip_media_select, tulip_null_media_poll, tulip_2114x_media_preset, }; static void tulip_21140_cogent_em100_media_probe(tulip_softc_t * const sc) { tulip_media_info_t *mip = sc->tulip_mediainfo; u_int32_t cmdmode = TULIP_CSR_READ(sc, csr_command); TULIP_LOCK_ASSERT(sc); sc->tulip_gpinit = TULIP_GP_EM100_PINS; sc->tulip_gpdata = TULIP_GP_EM100_INIT; TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_EM100_PINS); TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_EM100_INIT); cmdmode = TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION|TULIP_CMD_MUSTBEONE; cmdmode &= ~(TULIP_CMD_TXTHRSHLDCTL|TULIP_CMD_SCRAMBLER); if (sc->tulip_rombuf[32] == TULIP_COGENT_EM100FX_ID) { TULIP_CSR_WRITE(sc, csr_command, cmdmode); sc->tulip_media = TULIP_MEDIA_100BASEFX; tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASEFX, TULIP_GP_EM100_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASEFX_FD, TULIP_GP_EM100_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_FULLDUPLEX); } else { TULIP_CSR_WRITE(sc, csr_command, cmdmode|TULIP_CMD_SCRAMBLER); sc->tulip_media = TULIP_MEDIA_100BASETX; tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX, TULIP_GP_EM100_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX_FD, TULIP_GP_EM100_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER|TULIP_CMD_FULLDUPLEX); } } static const tulip_boardsw_t tulip_21140_cogent_em100_boardsw = { TULIP_21140_COGENT_EM100, tulip_21140_cogent_em100_media_probe, tulip_media_select, tulip_null_media_poll, tulip_2114x_media_preset }; static void tulip_21140_znyx_zx34x_media_probe(tulip_softc_t * const sc) { tulip_media_info_t *mip = sc->tulip_mediainfo; int cnt10 = 0, cnt100 = 0, idx; TULIP_LOCK_ASSERT(sc); sc->tulip_gpinit = TULIP_GP_ZX34X_PINS; sc->tulip_gpdata = TULIP_GP_ZX34X_INIT; TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_ZX34X_PINS); TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_ZX34X_INIT); TULIP_CSR_WRITE(sc, csr_command, TULIP_CSR_READ(sc, csr_command) | TULIP_CMD_PORTSELECT | TULIP_CMD_PCSFUNCTION | TULIP_CMD_SCRAMBLER | TULIP_CMD_MUSTBEONE); TULIP_CSR_WRITE(sc, csr_command, TULIP_CSR_READ(sc, csr_command) & ~TULIP_CMD_TXTHRSHLDCTL); DELAY(200000); for (idx = 1000; idx > 0; idx--) { u_int32_t csr = TULIP_CSR_READ(sc, csr_gp); if ((csr & (TULIP_GP_ZX34X_LNKFAIL|TULIP_GP_ZX34X_SYMDET|TULIP_GP_ZX34X_SIGDET)) == (TULIP_GP_ZX34X_LNKFAIL|TULIP_GP_ZX34X_SYMDET|TULIP_GP_ZX34X_SIGDET)) { if (++cnt100 > 100) break; } else if ((csr & TULIP_GP_ZX34X_LNKFAIL) == 0) { if (++cnt10 > 100) break; } else { cnt10 = 0; cnt100 = 0; } DELAY(1000); } sc->tulip_media = cnt100 > 100 ? TULIP_MEDIA_100BASETX : TULIP_MEDIA_10BASET; tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_10BASET, TULIP_GP_ZX34X_INIT, TULIP_CMD_TXTHRSHLDCTL); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_10BASET_FD, TULIP_GP_ZX34X_INIT, TULIP_CMD_TXTHRSHLDCTL|TULIP_CMD_FULLDUPLEX); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX, TULIP_GP_ZX34X_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER); tulip_21140_mediainit(sc, mip++, TULIP_MEDIA_100BASETX_FD, TULIP_GP_ZX34X_INIT, TULIP_CMD_PORTSELECT|TULIP_CMD_PCSFUNCTION |TULIP_CMD_SCRAMBLER|TULIP_CMD_FULLDUPLEX); } static const tulip_boardsw_t tulip_21140_znyx_zx34x_boardsw = { TULIP_21140_ZNYX_ZX34X, tulip_21140_znyx_zx34x_media_probe, tulip_media_select, tulip_null_media_poll, tulip_2114x_media_preset, }; static void tulip_2114x_media_probe(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); sc->tulip_cmdmode |= TULIP_CMD_MUSTBEONE |TULIP_CMD_BACKOFFCTR|TULIP_CMD_THRSHLD72; } static const tulip_boardsw_t tulip_2114x_isv_boardsw = { TULIP_21140_ISV, tulip_2114x_media_probe, tulip_media_select, tulip_media_poll, tulip_2114x_media_preset, }; /* * ******** END of chip-specific handlers. *********** */ /* * Code the read the SROM and MII bit streams (I2C) */ #define EMIT do { TULIP_CSR_WRITE(sc, csr_srom_mii, csr); DELAY(1); } while (0) static void tulip_srom_idle(tulip_softc_t * const sc) { unsigned bit, csr; csr = SROMSEL ; EMIT; csr = SROMSEL | SROMRD; EMIT; csr ^= SROMCS; EMIT; csr ^= SROMCLKON; EMIT; /* * Write 25 cycles of 0 which will force the SROM to be idle. */ for (bit = 3 + SROM_BITWIDTH + 16; bit > 0; bit--) { csr ^= SROMCLKOFF; EMIT; /* clock low; data not valid */ csr ^= SROMCLKON; EMIT; /* clock high; data valid */ } csr ^= SROMCLKOFF; EMIT; csr ^= SROMCS; EMIT; csr = 0; EMIT; } static void tulip_srom_read(tulip_softc_t * const sc) { unsigned idx; const unsigned bitwidth = SROM_BITWIDTH; const unsigned cmdmask = (SROMCMD_RD << bitwidth); const unsigned msb = 1 << (bitwidth + 3 - 1); unsigned lastidx = (1 << bitwidth) - 1; tulip_srom_idle(sc); for (idx = 0; idx <= lastidx; idx++) { unsigned lastbit, data, bits, bit, csr; csr = SROMSEL ; EMIT; csr = SROMSEL | SROMRD; EMIT; csr ^= SROMCSON; EMIT; csr ^= SROMCLKON; EMIT; lastbit = 0; for (bits = idx|cmdmask, bit = bitwidth + 3; bit > 0; bit--, bits <<= 1) { const unsigned thisbit = bits & msb; csr ^= SROMCLKOFF; EMIT; /* clock low; data not valid */ if (thisbit != lastbit) { csr ^= SROMDOUT; EMIT; /* clock low; invert data */ } else { EMIT; } csr ^= SROMCLKON; EMIT; /* clock high; data valid */ lastbit = thisbit; } csr ^= SROMCLKOFF; EMIT; for (data = 0, bits = 0; bits < 16; bits++) { data <<= 1; csr ^= SROMCLKON; EMIT; /* clock high; data valid */ data |= TULIP_CSR_READ(sc, csr_srom_mii) & SROMDIN ? 1 : 0; csr ^= SROMCLKOFF; EMIT; /* clock low; data not valid */ } sc->tulip_rombuf[idx*2] = data & 0xFF; sc->tulip_rombuf[idx*2+1] = data >> 8; csr = SROMSEL | SROMRD; EMIT; csr = 0; EMIT; } tulip_srom_idle(sc); } #define MII_EMIT do { TULIP_CSR_WRITE(sc, csr_srom_mii, csr); DELAY(1); } while (0) static void tulip_mii_writebits(tulip_softc_t * const sc, unsigned data, unsigned bits) { unsigned msb = 1 << (bits - 1); unsigned csr = TULIP_CSR_READ(sc, csr_srom_mii) & (MII_RD|MII_DOUT|MII_CLK); unsigned lastbit = (csr & MII_DOUT) ? msb : 0; TULIP_LOCK_ASSERT(sc); csr |= MII_WR; MII_EMIT; /* clock low; assert write */ for (; bits > 0; bits--, data <<= 1) { const unsigned thisbit = data & msb; if (thisbit != lastbit) { csr ^= MII_DOUT; MII_EMIT; /* clock low; invert data */ } csr ^= MII_CLKON; MII_EMIT; /* clock high; data valid */ lastbit = thisbit; csr ^= MII_CLKOFF; MII_EMIT; /* clock low; data not valid */ } } static void tulip_mii_turnaround(tulip_softc_t * const sc, unsigned cmd) { unsigned csr = TULIP_CSR_READ(sc, csr_srom_mii) & (MII_RD|MII_DOUT|MII_CLK); TULIP_LOCK_ASSERT(sc); if (cmd == MII_WRCMD) { csr |= MII_DOUT; MII_EMIT; /* clock low; change data */ csr ^= MII_CLKON; MII_EMIT; /* clock high; data valid */ csr ^= MII_CLKOFF; MII_EMIT; /* clock low; data not valid */ csr ^= MII_DOUT; MII_EMIT; /* clock low; change data */ } else { csr |= MII_RD; MII_EMIT; /* clock low; switch to read */ } csr ^= MII_CLKON; MII_EMIT; /* clock high; data valid */ csr ^= MII_CLKOFF; MII_EMIT; /* clock low; data not valid */ } static unsigned tulip_mii_readbits(tulip_softc_t * const sc) { unsigned data; unsigned csr = TULIP_CSR_READ(sc, csr_srom_mii) & (MII_RD|MII_DOUT|MII_CLK); int idx; TULIP_LOCK_ASSERT(sc); for (idx = 0, data = 0; idx < 16; idx++) { data <<= 1; /* this is NOOP on the first pass through */ csr ^= MII_CLKON; MII_EMIT; /* clock high; data valid */ if (TULIP_CSR_READ(sc, csr_srom_mii) & MII_DIN) data |= 1; csr ^= MII_CLKOFF; MII_EMIT; /* clock low; data not valid */ } csr ^= MII_RD; MII_EMIT; /* clock low; turn off read */ return data; } static unsigned tulip_mii_readreg(tulip_softc_t * const sc, unsigned devaddr, unsigned regno) { unsigned csr = TULIP_CSR_READ(sc, csr_srom_mii) & (MII_RD|MII_DOUT|MII_CLK); unsigned data; TULIP_LOCK_ASSERT(sc); csr &= ~(MII_RD|MII_CLK); MII_EMIT; tulip_mii_writebits(sc, MII_PREAMBLE, 32); tulip_mii_writebits(sc, MII_RDCMD, 8); tulip_mii_writebits(sc, devaddr, 5); tulip_mii_writebits(sc, regno, 5); tulip_mii_turnaround(sc, MII_RDCMD); data = tulip_mii_readbits(sc); #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_phyregs[regno][0] = data; sc->tulip_dbg.dbg_phyregs[regno][1]++; #endif return data; } static void tulip_mii_writereg(tulip_softc_t * const sc, unsigned devaddr, unsigned regno, unsigned data) { unsigned csr = TULIP_CSR_READ(sc, csr_srom_mii) & (MII_RD|MII_DOUT|MII_CLK); TULIP_LOCK_ASSERT(sc); csr &= ~(MII_RD|MII_CLK); MII_EMIT; tulip_mii_writebits(sc, MII_PREAMBLE, 32); tulip_mii_writebits(sc, MII_WRCMD, 8); tulip_mii_writebits(sc, devaddr, 5); tulip_mii_writebits(sc, regno, 5); tulip_mii_turnaround(sc, MII_WRCMD); tulip_mii_writebits(sc, data, 16); #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_phyregs[regno][2] = data; sc->tulip_dbg.dbg_phyregs[regno][3]++; #endif } #define tulip_mchash(mca) (ether_crc32_le(mca, 6) & 0x1FF) #define tulip_srom_crcok(databuf) ( \ ((ether_crc32_le(databuf, 126) & 0xFFFFU) ^ 0xFFFFU) == \ ((databuf)[126] | ((databuf)[127] << 8))) static void tulip_identify_dec_nic(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); strcpy(sc->tulip_boardid, "DEC "); #define D0 4 if (sc->tulip_chipid <= TULIP_21040) return; if (bcmp(sc->tulip_rombuf + 29, "DE500", 5) == 0 || bcmp(sc->tulip_rombuf + 29, "DE450", 5) == 0) { bcopy(sc->tulip_rombuf + 29, &sc->tulip_boardid[D0], 8); sc->tulip_boardid[D0+8] = ' '; } #undef D0 } static void tulip_identify_znyx_nic(tulip_softc_t * const sc) { unsigned id = 0; TULIP_LOCK_ASSERT(sc); strcpy(sc->tulip_boardid, "ZNYX ZX3XX "); if (sc->tulip_chipid == TULIP_21140 || sc->tulip_chipid == TULIP_21140A) { unsigned znyx_ptr; sc->tulip_boardid[8] = '4'; znyx_ptr = sc->tulip_rombuf[124] + 256 * sc->tulip_rombuf[125]; if (znyx_ptr < 26 || znyx_ptr > 116) { sc->tulip_boardsw = &tulip_21140_znyx_zx34x_boardsw; return; } /* ZX344 = 0010 .. 0013FF */ if (sc->tulip_rombuf[znyx_ptr] == 0x4A && sc->tulip_rombuf[znyx_ptr + 1] == 0x52 && sc->tulip_rombuf[znyx_ptr + 2] == 0x01) { id = sc->tulip_rombuf[znyx_ptr + 5] + 256 * sc->tulip_rombuf[znyx_ptr + 4]; if ((id >> 8) == (TULIP_ZNYX_ID_ZX342 >> 8)) { sc->tulip_boardid[9] = '2'; if (id == TULIP_ZNYX_ID_ZX342B) { sc->tulip_boardid[10] = 'B'; sc->tulip_boardid[11] = ' '; } sc->tulip_boardsw = &tulip_21140_znyx_zx34x_boardsw; } else if (id == TULIP_ZNYX_ID_ZX344) { sc->tulip_boardid[10] = '4'; sc->tulip_boardsw = &tulip_21140_znyx_zx34x_boardsw; } else if (id == TULIP_ZNYX_ID_ZX345) { sc->tulip_boardid[9] = (sc->tulip_rombuf[19] > 1) ? '8' : '5'; } else if (id == TULIP_ZNYX_ID_ZX346) { sc->tulip_boardid[9] = '6'; } else if (id == TULIP_ZNYX_ID_ZX351) { sc->tulip_boardid[8] = '5'; sc->tulip_boardid[9] = '1'; } } if (id == 0) { /* * Assume it's a ZX342... */ sc->tulip_boardsw = &tulip_21140_znyx_zx34x_boardsw; } return; } sc->tulip_boardid[8] = '1'; if (sc->tulip_chipid == TULIP_21041) { sc->tulip_boardid[10] = '1'; return; } if (sc->tulip_rombuf[32] == 0x4A && sc->tulip_rombuf[33] == 0x52) { id = sc->tulip_rombuf[37] + 256 * sc->tulip_rombuf[36]; if (id == TULIP_ZNYX_ID_ZX312T) { sc->tulip_boardid[9] = '2'; sc->tulip_boardid[10] = 'T'; sc->tulip_boardid[11] = ' '; sc->tulip_boardsw = &tulip_21040_10baset_only_boardsw; } else if (id == TULIP_ZNYX_ID_ZX314_INTA) { sc->tulip_boardid[9] = '4'; sc->tulip_boardsw = &tulip_21040_10baset_only_boardsw; sc->tulip_features |= TULIP_HAVE_SHAREDINTR|TULIP_HAVE_BASEROM; } else if (id == TULIP_ZNYX_ID_ZX314) { sc->tulip_boardid[9] = '4'; sc->tulip_boardsw = &tulip_21040_10baset_only_boardsw; sc->tulip_features |= TULIP_HAVE_BASEROM; } else if (id == TULIP_ZNYX_ID_ZX315_INTA) { sc->tulip_boardid[9] = '5'; sc->tulip_features |= TULIP_HAVE_SHAREDINTR|TULIP_HAVE_BASEROM; } else if (id == TULIP_ZNYX_ID_ZX315) { sc->tulip_boardid[9] = '5'; sc->tulip_features |= TULIP_HAVE_BASEROM; } else { id = 0; } } if (id == 0) { if ((sc->tulip_enaddr[3] & ~3) == 0xF0 && (sc->tulip_enaddr[5] & 2) == 0) { sc->tulip_boardid[9] = '4'; sc->tulip_boardsw = &tulip_21040_10baset_only_boardsw; sc->tulip_features |= TULIP_HAVE_SHAREDINTR|TULIP_HAVE_BASEROM; } else if ((sc->tulip_enaddr[3] & ~3) == 0xF4 && (sc->tulip_enaddr[5] & 1) == 0) { sc->tulip_boardid[9] = '5'; sc->tulip_boardsw = &tulip_21040_boardsw; sc->tulip_features |= TULIP_HAVE_SHAREDINTR|TULIP_HAVE_BASEROM; } else if ((sc->tulip_enaddr[3] & ~3) == 0xEC) { sc->tulip_boardid[9] = '2'; sc->tulip_boardsw = &tulip_21040_boardsw; } } } static void tulip_identify_smc_nic(tulip_softc_t * const sc) { u_int32_t id1, id2, ei; int auibnc = 0, utp = 0; char *cp; TULIP_LOCK_ASSERT(sc); strcpy(sc->tulip_boardid, "SMC "); if (sc->tulip_chipid == TULIP_21041) return; if (sc->tulip_chipid != TULIP_21040) { if (sc->tulip_boardsw != &tulip_2114x_isv_boardsw) { strcpy(&sc->tulip_boardid[4], "9332DST "); sc->tulip_boardsw = &tulip_21140_smc9332_boardsw; } else if (sc->tulip_features & (TULIP_HAVE_BASEROM|TULIP_HAVE_SLAVEDROM)) { strcpy(&sc->tulip_boardid[4], "9334BDT "); } else { strcpy(&sc->tulip_boardid[4], "9332BDT "); } return; } id1 = sc->tulip_rombuf[0x60] | (sc->tulip_rombuf[0x61] << 8); id2 = sc->tulip_rombuf[0x62] | (sc->tulip_rombuf[0x63] << 8); ei = sc->tulip_rombuf[0x66] | (sc->tulip_rombuf[0x67] << 8); strcpy(&sc->tulip_boardid[4], "8432"); cp = &sc->tulip_boardid[8]; if ((id1 & 1) == 0) *cp++ = 'B', auibnc = 1; if ((id1 & 0xFF) > 0x32) *cp++ = 'T', utp = 1; if ((id1 & 0x4000) == 0) *cp++ = 'A', auibnc = 1; if (id2 == 0x15) { sc->tulip_boardid[7] = '4'; *cp++ = '-'; *cp++ = 'C'; *cp++ = 'H'; *cp++ = (ei ? '2' : '1'); } *cp++ = ' '; *cp = '\0'; if (utp && !auibnc) sc->tulip_boardsw = &tulip_21040_10baset_only_boardsw; else if (!utp && auibnc) sc->tulip_boardsw = &tulip_21040_auibnc_only_boardsw; } static void tulip_identify_cogent_nic(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); strcpy(sc->tulip_boardid, "Cogent "); if (sc->tulip_chipid == TULIP_21140 || sc->tulip_chipid == TULIP_21140A) { if (sc->tulip_rombuf[32] == TULIP_COGENT_EM100TX_ID) { strcat(sc->tulip_boardid, "EM100TX "); sc->tulip_boardsw = &tulip_21140_cogent_em100_boardsw; #if defined(TULIP_COGENT_EM110TX_ID) } else if (sc->tulip_rombuf[32] == TULIP_COGENT_EM110TX_ID) { strcat(sc->tulip_boardid, "EM110TX "); sc->tulip_boardsw = &tulip_21140_cogent_em100_boardsw; #endif } else if (sc->tulip_rombuf[32] == TULIP_COGENT_EM100FX_ID) { strcat(sc->tulip_boardid, "EM100FX "); sc->tulip_boardsw = &tulip_21140_cogent_em100_boardsw; } /* * Magic number (0x24001109U) is the SubVendor (0x2400) and * SubDevId (0x1109) for the ANA6944TX (EM440TX). */ if (*(u_int32_t *) sc->tulip_rombuf == 0x24001109U && (sc->tulip_features & TULIP_HAVE_BASEROM)) { /* * Cogent (Adaptec) is still mapping all INTs to INTA of * first 21140. Dumb! Dumb! */ strcat(sc->tulip_boardid, "EM440TX "); sc->tulip_features |= TULIP_HAVE_SHAREDINTR; } } else if (sc->tulip_chipid == TULIP_21040) { sc->tulip_features |= TULIP_HAVE_SHAREDINTR|TULIP_HAVE_BASEROM; } } static void tulip_identify_accton_nic(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); strcpy(sc->tulip_boardid, "ACCTON "); switch (sc->tulip_chipid) { case TULIP_21140A: strcat(sc->tulip_boardid, "EN1207 "); if (sc->tulip_boardsw != &tulip_2114x_isv_boardsw) sc->tulip_boardsw = &tulip_21140_accton_boardsw; break; case TULIP_21140: strcat(sc->tulip_boardid, "EN1207TX "); if (sc->tulip_boardsw != &tulip_2114x_isv_boardsw) sc->tulip_boardsw = &tulip_21140_eb_boardsw; break; case TULIP_21040: strcat(sc->tulip_boardid, "EN1203 "); sc->tulip_boardsw = &tulip_21040_boardsw; break; case TULIP_21041: strcat(sc->tulip_boardid, "EN1203 "); sc->tulip_boardsw = &tulip_21041_boardsw; break; default: sc->tulip_boardsw = &tulip_2114x_isv_boardsw; break; } } static void tulip_identify_asante_nic(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); strcpy(sc->tulip_boardid, "Asante "); if ((sc->tulip_chipid == TULIP_21140 || sc->tulip_chipid == TULIP_21140A) && sc->tulip_boardsw != &tulip_2114x_isv_boardsw) { tulip_media_info_t *mi = sc->tulip_mediainfo; int idx; /* * The Asante Fast Ethernet doesn't always ship with a valid * new format SROM. So if isn't in the new format, we cheat * set it up as if we had. */ sc->tulip_gpinit = TULIP_GP_ASANTE_PINS; sc->tulip_gpdata = 0; TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_ASANTE_PINS|TULIP_GP_PINSET); TULIP_CSR_WRITE(sc, csr_gp, TULIP_GP_ASANTE_PHYRESET); DELAY(100); TULIP_CSR_WRITE(sc, csr_gp, 0); mi->mi_type = TULIP_MEDIAINFO_MII; mi->mi_gpr_length = 0; mi->mi_gpr_offset = 0; mi->mi_reset_length = 0; mi->mi_reset_offset = 0; mi->mi_phyaddr = TULIP_MII_NOPHY; for (idx = 20; idx > 0 && mi->mi_phyaddr == TULIP_MII_NOPHY; idx--) { DELAY(10000); mi->mi_phyaddr = tulip_mii_get_phyaddr(sc, 0); } if (mi->mi_phyaddr == TULIP_MII_NOPHY) { device_printf(sc->tulip_dev, "can't find phy 0\n"); return; } sc->tulip_features |= TULIP_HAVE_MII; mi->mi_capabilities = PHYSTS_10BASET|PHYSTS_10BASET_FD|PHYSTS_100BASETX|PHYSTS_100BASETX_FD; mi->mi_advertisement = PHYSTS_10BASET|PHYSTS_10BASET_FD|PHYSTS_100BASETX|PHYSTS_100BASETX_FD; mi->mi_full_duplex = PHYSTS_10BASET_FD|PHYSTS_100BASETX_FD; mi->mi_tx_threshold = PHYSTS_10BASET|PHYSTS_10BASET_FD; TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 100BASETX_FD); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 100BASETX); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 100BASET4); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 10BASET_FD); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 10BASET); mi->mi_phyid = (tulip_mii_readreg(sc, mi->mi_phyaddr, PHYREG_IDLOW) << 16) | tulip_mii_readreg(sc, mi->mi_phyaddr, PHYREG_IDHIGH); sc->tulip_boardsw = &tulip_2114x_isv_boardsw; } } static void tulip_identify_compex_nic(tulip_softc_t * const sc) { TULIP_LOCK_ASSERT(sc); strcpy(sc->tulip_boardid, "COMPEX "); if (sc->tulip_chipid == TULIP_21140A) { int root_unit; tulip_softc_t *root_sc = NULL; strcat(sc->tulip_boardid, "400TX/PCI "); /* * All 4 chips on these boards share an interrupt. This code * copied from tulip_read_macaddr. */ sc->tulip_features |= TULIP_HAVE_SHAREDINTR; for (root_unit = sc->tulip_unit - 1; root_unit >= 0; root_unit--) { root_sc = tulips[root_unit]; if (root_sc == NULL || !(root_sc->tulip_features & TULIP_HAVE_SLAVEDINTR)) break; root_sc = NULL; } if (root_sc != NULL && root_sc->tulip_chipid == sc->tulip_chipid && root_sc->tulip_pci_busno == sc->tulip_pci_busno) { sc->tulip_features |= TULIP_HAVE_SLAVEDINTR; sc->tulip_slaves = root_sc->tulip_slaves; root_sc->tulip_slaves = sc; } else if(sc->tulip_features & TULIP_HAVE_SLAVEDINTR) { printf("\nCannot find master device for %s interrupts", sc->tulip_ifp->if_xname); } } else { strcat(sc->tulip_boardid, "unknown "); } /* sc->tulip_boardsw = &tulip_21140_eb_boardsw; */ return; } static int tulip_srom_decode(tulip_softc_t * const sc) { unsigned idx1, idx2, idx3; const tulip_srom_header_t *shp = (const tulip_srom_header_t *) &sc->tulip_rombuf[0]; const tulip_srom_adapter_info_t *saip = (const tulip_srom_adapter_info_t *) (shp + 1); tulip_srom_media_t srom_media; tulip_media_info_t *mi = sc->tulip_mediainfo; const u_int8_t *dp; u_int32_t leaf_offset, blocks, data; TULIP_LOCK_ASSERT(sc); for (idx1 = 0; idx1 < shp->sh_adapter_count; idx1++, saip++) { if (shp->sh_adapter_count == 1) break; if (saip->sai_device == sc->tulip_pci_devno) break; } /* * Didn't find the right media block for this card. */ if (idx1 == shp->sh_adapter_count) return 0; /* * Save the hardware address. */ bcopy(shp->sh_ieee802_address, sc->tulip_enaddr, 6); /* * If this is a multiple port card, add the adapter index to the last * byte of the hardware address. (if it isn't multiport, adding 0 * won't hurt. */ sc->tulip_enaddr[5] += idx1; leaf_offset = saip->sai_leaf_offset_lowbyte + saip->sai_leaf_offset_highbyte * 256; dp = sc->tulip_rombuf + leaf_offset; sc->tulip_conntype = (tulip_srom_connection_t) (dp[0] + dp[1] * 256); dp += 2; for (idx2 = 0;; idx2++) { if (tulip_srom_conninfo[idx2].sc_type == sc->tulip_conntype || tulip_srom_conninfo[idx2].sc_type == TULIP_SROM_CONNTYPE_NOT_USED) break; } sc->tulip_connidx = idx2; if (sc->tulip_chipid == TULIP_21041) { blocks = *dp++; for (idx2 = 0; idx2 < blocks; idx2++) { tulip_media_t media; data = *dp++; srom_media = (tulip_srom_media_t) (data & 0x3F); for (idx3 = 0; tulip_srom_mediums[idx3].sm_type != TULIP_MEDIA_UNKNOWN; idx3++) { if (tulip_srom_mediums[idx3].sm_srom_type == srom_media) break; } media = tulip_srom_mediums[idx3].sm_type; if (media != TULIP_MEDIA_UNKNOWN) { if (data & TULIP_SROM_21041_EXTENDED) { mi->mi_type = TULIP_MEDIAINFO_SIA; sc->tulip_mediums[media] = mi; mi->mi_sia_connectivity = dp[0] + dp[1] * 256; mi->mi_sia_tx_rx = dp[2] + dp[3] * 256; mi->mi_sia_general = dp[4] + dp[5] * 256; mi++; } else { switch (media) { case TULIP_MEDIA_BNC: { TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21041, BNC); mi++; break; } case TULIP_MEDIA_AUI: { TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21041, AUI); mi++; break; } case TULIP_MEDIA_10BASET: { TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21041, 10BASET); mi++; break; } case TULIP_MEDIA_10BASET_FD: { TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21041, 10BASET_FD); mi++; break; } default: { break; } } } } if (data & TULIP_SROM_21041_EXTENDED) dp += 6; } #ifdef notdef if (blocks == 0) { TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21041, BNC); mi++; TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21041, AUI); mi++; TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21041, 10BASET); mi++; TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21041, 10BASET_FD); mi++; } #endif } else { unsigned length, type; tulip_media_t gp_media = TULIP_MEDIA_UNKNOWN; if (sc->tulip_features & TULIP_HAVE_GPR) sc->tulip_gpinit = *dp++; blocks = *dp++; for (idx2 = 0; idx2 < blocks; idx2++) { const u_int8_t *ep; if ((*dp & 0x80) == 0) { length = 4; type = 0; } else { length = (*dp++ & 0x7f) - 1; type = *dp++ & 0x3f; } ep = dp + length; switch (type & 0x3f) { case 0: { /* 21140[A] GPR block */ tulip_media_t media; srom_media = (tulip_srom_media_t)(dp[0] & 0x3f); for (idx3 = 0; tulip_srom_mediums[idx3].sm_type != TULIP_MEDIA_UNKNOWN; idx3++) { if (tulip_srom_mediums[idx3].sm_srom_type == srom_media) break; } media = tulip_srom_mediums[idx3].sm_type; if (media == TULIP_MEDIA_UNKNOWN) break; mi->mi_type = TULIP_MEDIAINFO_GPR; sc->tulip_mediums[media] = mi; mi->mi_gpdata = dp[1]; if (media > gp_media && !TULIP_IS_MEDIA_FD(media)) { sc->tulip_gpdata = mi->mi_gpdata; gp_media = media; } data = dp[2] + dp[3] * 256; mi->mi_cmdmode = TULIP_SROM_2114X_CMDBITS(data); if (data & TULIP_SROM_2114X_NOINDICATOR) { mi->mi_actmask = 0; } else { #if 0 mi->mi_default = (data & TULIP_SROM_2114X_DEFAULT) != 0; #endif mi->mi_actmask = TULIP_SROM_2114X_BITPOS(data); mi->mi_actdata = (data & TULIP_SROM_2114X_POLARITY) ? 0 : mi->mi_actmask; } mi++; break; } case 1: { /* 21140[A] MII block */ const unsigned phyno = *dp++; mi->mi_type = TULIP_MEDIAINFO_MII; mi->mi_gpr_length = *dp++; mi->mi_gpr_offset = dp - sc->tulip_rombuf; dp += mi->mi_gpr_length; mi->mi_reset_length = *dp++; mi->mi_reset_offset = dp - sc->tulip_rombuf; dp += mi->mi_reset_length; /* * Before we probe for a PHY, use the GPR information * to select it. If we don't, it may be inaccessible. */ TULIP_CSR_WRITE(sc, csr_gp, sc->tulip_gpinit|TULIP_GP_PINSET); for (idx3 = 0; idx3 < mi->mi_reset_length; idx3++) { DELAY(10); TULIP_CSR_WRITE(sc, csr_gp, sc->tulip_rombuf[mi->mi_reset_offset + idx3]); } sc->tulip_phyaddr = mi->mi_phyaddr; for (idx3 = 0; idx3 < mi->mi_gpr_length; idx3++) { DELAY(10); TULIP_CSR_WRITE(sc, csr_gp, sc->tulip_rombuf[mi->mi_gpr_offset + idx3]); } /* * At least write something! */ if (mi->mi_reset_length == 0 && mi->mi_gpr_length == 0) TULIP_CSR_WRITE(sc, csr_gp, 0); mi->mi_phyaddr = TULIP_MII_NOPHY; for (idx3 = 20; idx3 > 0 && mi->mi_phyaddr == TULIP_MII_NOPHY; idx3--) { DELAY(10000); mi->mi_phyaddr = tulip_mii_get_phyaddr(sc, phyno); } if (mi->mi_phyaddr == TULIP_MII_NOPHY) { #if defined(TULIP_DEBUG) device_printf(sc->tulip_dev, "can't find phy %d\n", phyno); #endif break; } sc->tulip_features |= TULIP_HAVE_MII; mi->mi_capabilities = dp[0] + dp[1] * 256; dp += 2; mi->mi_advertisement = dp[0] + dp[1] * 256; dp += 2; mi->mi_full_duplex = dp[0] + dp[1] * 256; dp += 2; mi->mi_tx_threshold = dp[0] + dp[1] * 256; dp += 2; TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 100BASETX_FD); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 100BASETX); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 100BASET4); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 10BASET_FD); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 10BASET); mi->mi_phyid = (tulip_mii_readreg(sc, mi->mi_phyaddr, PHYREG_IDLOW) << 16) | tulip_mii_readreg(sc, mi->mi_phyaddr, PHYREG_IDHIGH); mi++; break; } case 2: { /* 2114[23] SIA block */ tulip_media_t media; srom_media = (tulip_srom_media_t)(dp[0] & 0x3f); for (idx3 = 0; tulip_srom_mediums[idx3].sm_type != TULIP_MEDIA_UNKNOWN; idx3++) { if (tulip_srom_mediums[idx3].sm_srom_type == srom_media) break; } media = tulip_srom_mediums[idx3].sm_type; if (media == TULIP_MEDIA_UNKNOWN) break; mi->mi_type = TULIP_MEDIAINFO_SIA; sc->tulip_mediums[media] = mi; if (dp[0] & 0x40) { mi->mi_sia_connectivity = dp[1] + dp[2] * 256; mi->mi_sia_tx_rx = dp[3] + dp[4] * 256; mi->mi_sia_general = dp[5] + dp[6] * 256; dp += 6; } else { switch (media) { case TULIP_MEDIA_BNC: { TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21142, BNC); break; } case TULIP_MEDIA_AUI: { TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21142, AUI); break; } case TULIP_MEDIA_10BASET: { TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21142, 10BASET); sc->tulip_intrmask |= TULIP_STS_LINKPASS|TULIP_STS_LINKFAIL; break; } case TULIP_MEDIA_10BASET_FD: { TULIP_MEDIAINFO_SIA_INIT(sc, mi, 21142, 10BASET_FD); sc->tulip_intrmask |= TULIP_STS_LINKPASS|TULIP_STS_LINKFAIL; break; } default: { goto bad_media; } } } mi->mi_sia_gp_control = (dp[1] + dp[2] * 256) << 16; mi->mi_sia_gp_data = (dp[3] + dp[4] * 256) << 16; mi++; bad_media: break; } case 3: { /* 2114[23] MII PHY block */ const unsigned phyno = *dp++; const u_int8_t *dp0; mi->mi_type = TULIP_MEDIAINFO_MII; mi->mi_gpr_length = *dp++; mi->mi_gpr_offset = dp - sc->tulip_rombuf; dp += 2 * mi->mi_gpr_length; mi->mi_reset_length = *dp++; mi->mi_reset_offset = dp - sc->tulip_rombuf; dp += 2 * mi->mi_reset_length; dp0 = &sc->tulip_rombuf[mi->mi_reset_offset]; for (idx3 = 0; idx3 < mi->mi_reset_length; idx3++, dp0 += 2) { DELAY(10); TULIP_CSR_WRITE(sc, csr_sia_general, (dp0[0] + 256 * dp0[1]) << 16); } sc->tulip_phyaddr = mi->mi_phyaddr; dp0 = &sc->tulip_rombuf[mi->mi_gpr_offset]; for (idx3 = 0; idx3 < mi->mi_gpr_length; idx3++, dp0 += 2) { DELAY(10); TULIP_CSR_WRITE(sc, csr_sia_general, (dp0[0] + 256 * dp0[1]) << 16); } if (mi->mi_reset_length == 0 && mi->mi_gpr_length == 0) TULIP_CSR_WRITE(sc, csr_sia_general, 0); mi->mi_phyaddr = TULIP_MII_NOPHY; for (idx3 = 20; idx3 > 0 && mi->mi_phyaddr == TULIP_MII_NOPHY; idx3--) { DELAY(10000); mi->mi_phyaddr = tulip_mii_get_phyaddr(sc, phyno); } if (mi->mi_phyaddr == TULIP_MII_NOPHY) { #if defined(TULIP_DEBUG) device_printf(sc->tulip_dev, "can't find phy %d\n", phyno); #endif break; } sc->tulip_features |= TULIP_HAVE_MII; mi->mi_capabilities = dp[0] + dp[1] * 256; dp += 2; mi->mi_advertisement = dp[0] + dp[1] * 256; dp += 2; mi->mi_full_duplex = dp[0] + dp[1] * 256; dp += 2; mi->mi_tx_threshold = dp[0] + dp[1] * 256; dp += 2; mi->mi_mii_interrupt = dp[0] + dp[1] * 256; dp += 2; TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 100BASETX_FD); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 100BASETX); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 100BASET4); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 10BASET_FD); TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, 10BASET); mi->mi_phyid = (tulip_mii_readreg(sc, mi->mi_phyaddr, PHYREG_IDLOW) << 16) | tulip_mii_readreg(sc, mi->mi_phyaddr, PHYREG_IDHIGH); mi++; break; } case 4: { /* 21143 SYM block */ tulip_media_t media; srom_media = (tulip_srom_media_t) dp[0]; for (idx3 = 0; tulip_srom_mediums[idx3].sm_type != TULIP_MEDIA_UNKNOWN; idx3++) { if (tulip_srom_mediums[idx3].sm_srom_type == srom_media) break; } media = tulip_srom_mediums[idx3].sm_type; if (media == TULIP_MEDIA_UNKNOWN) break; mi->mi_type = TULIP_MEDIAINFO_SYM; sc->tulip_mediums[media] = mi; mi->mi_gpcontrol = (dp[1] + dp[2] * 256) << 16; mi->mi_gpdata = (dp[3] + dp[4] * 256) << 16; data = dp[5] + dp[6] * 256; mi->mi_cmdmode = TULIP_SROM_2114X_CMDBITS(data); if (data & TULIP_SROM_2114X_NOINDICATOR) { mi->mi_actmask = 0; } else { mi->mi_default = (data & TULIP_SROM_2114X_DEFAULT) != 0; mi->mi_actmask = TULIP_SROM_2114X_BITPOS(data); mi->mi_actdata = (data & TULIP_SROM_2114X_POLARITY) ? 0 : mi->mi_actmask; } if (TULIP_IS_MEDIA_TP(media)) sc->tulip_intrmask |= TULIP_STS_LINKPASS|TULIP_STS_LINKFAIL; mi++; break; } #if 0 case 5: { /* 21143 Reset block */ mi->mi_type = TULIP_MEDIAINFO_RESET; mi->mi_reset_length = *dp++; mi->mi_reset_offset = dp - sc->tulip_rombuf; dp += 2 * mi->mi_reset_length; mi++; break; } #endif default: { } } dp = ep; } } return mi - sc->tulip_mediainfo; } static const struct { void (*vendor_identify_nic)(tulip_softc_t * const sc); unsigned char vendor_oui[3]; } tulip_vendors[] = { { tulip_identify_dec_nic, { 0x08, 0x00, 0x2B } }, { tulip_identify_dec_nic, { 0x00, 0x00, 0xF8 } }, { tulip_identify_smc_nic, { 0x00, 0x00, 0xC0 } }, { tulip_identify_smc_nic, { 0x00, 0xE0, 0x29 } }, { tulip_identify_znyx_nic, { 0x00, 0xC0, 0x95 } }, { tulip_identify_cogent_nic, { 0x00, 0x00, 0x92 } }, { tulip_identify_asante_nic, { 0x00, 0x00, 0x94 } }, { tulip_identify_cogent_nic, { 0x00, 0x00, 0xD1 } }, { tulip_identify_accton_nic, { 0x00, 0x00, 0xE8 } }, { tulip_identify_compex_nic, { 0x00, 0x80, 0x48 } }, { NULL } }; /* * This deals with the vagaries of the address roms and the * brain-deadness that various vendors commit in using them. */ static int tulip_read_macaddr(tulip_softc_t * const sc) { unsigned cksum, rom_cksum, idx; u_int32_t csr; unsigned char tmpbuf[8]; static const u_char testpat[] = { 0xFF, 0, 0x55, 0xAA, 0xFF, 0, 0x55, 0xAA }; sc->tulip_connidx = TULIP_SROM_LASTCONNIDX; if (sc->tulip_chipid == TULIP_21040) { TULIP_CSR_WRITE(sc, csr_enetrom, 1); for (idx = 0; idx < sizeof(sc->tulip_rombuf); idx++) { int cnt = 0; while (((csr = TULIP_CSR_READ(sc, csr_enetrom)) & 0x80000000L) && cnt < 10000) cnt++; sc->tulip_rombuf[idx] = csr & 0xFF; } sc->tulip_boardsw = &tulip_21040_boardsw; } else { if (sc->tulip_chipid == TULIP_21041) { /* * Thankfully all 21041's act the same. */ sc->tulip_boardsw = &tulip_21041_boardsw; } else { /* * Assume all 21140 board are compatible with the * DEC 10/100 evaluation board. Not really valid but * it's the best we can do until every one switches to * the new SROM format. */ sc->tulip_boardsw = &tulip_21140_eb_boardsw; } tulip_srom_read(sc); if (tulip_srom_crcok(sc->tulip_rombuf)) { /* * SROM CRC is valid therefore it must be in the * new format. */ sc->tulip_features |= TULIP_HAVE_ISVSROM|TULIP_HAVE_OKSROM; } else if (sc->tulip_rombuf[126] == 0xff && sc->tulip_rombuf[127] == 0xFF) { /* * No checksum is present. See if the SROM id checks out; * the first 18 bytes should be 0 followed by a 1 followed * by the number of adapters (which we don't deal with yet). */ for (idx = 0; idx < 18; idx++) { if (sc->tulip_rombuf[idx] != 0) break; } if (idx == 18 && sc->tulip_rombuf[18] == 1 && sc->tulip_rombuf[19] != 0) sc->tulip_features |= TULIP_HAVE_ISVSROM; } else if (sc->tulip_chipid >= TULIP_21142) { sc->tulip_features |= TULIP_HAVE_ISVSROM; sc->tulip_boardsw = &tulip_2114x_isv_boardsw; } if ((sc->tulip_features & TULIP_HAVE_ISVSROM) && tulip_srom_decode(sc)) { if (sc->tulip_chipid != TULIP_21041) sc->tulip_boardsw = &tulip_2114x_isv_boardsw; /* * If the SROM specifies more than one adapter, tag this as a * BASE rom. */ if (sc->tulip_rombuf[19] > 1) sc->tulip_features |= TULIP_HAVE_BASEROM; if (sc->tulip_boardsw == NULL) return -6; goto check_oui; } } if (bcmp(&sc->tulip_rombuf[0], &sc->tulip_rombuf[16], 8) != 0) { /* * Some folks don't use the standard ethernet rom format * but instead just put the address in the first 6 bytes * of the rom and let the rest be all 0xffs. (Can we say * ZNYX?) (well sometimes they put in a checksum so we'll * start at 8). */ for (idx = 8; idx < 32; idx++) { if (sc->tulip_rombuf[idx] != 0xFF) return -4; } /* * Make sure the address is not multicast or locally assigned * that the OUI is not 00-00-00. */ if ((sc->tulip_rombuf[0] & 3) != 0) return -4; if (sc->tulip_rombuf[0] == 0 && sc->tulip_rombuf[1] == 0 && sc->tulip_rombuf[2] == 0) return -4; bcopy(sc->tulip_rombuf, sc->tulip_enaddr, 6); sc->tulip_features |= TULIP_HAVE_OKROM; goto check_oui; } else { /* * A number of makers of multiport boards (ZNYX and Cogent) * only put on one address ROM on their 21040 boards. So * if the ROM is all zeros (or all 0xFFs), look at the * previous configured boards (as long as they are on the same * PCI bus and the bus number is non-zero) until we find the * master board with address ROM. We then use its address ROM * as the base for this board. (we add our relative board * to the last byte of its address). */ for (idx = 0; idx < sizeof(sc->tulip_rombuf); idx++) { if (sc->tulip_rombuf[idx] != 0 && sc->tulip_rombuf[idx] != 0xFF) break; } if (idx == sizeof(sc->tulip_rombuf)) { int root_unit; tulip_softc_t *root_sc = NULL; for (root_unit = sc->tulip_unit - 1; root_unit >= 0; root_unit--) { root_sc = tulips[root_unit]; if (root_sc == NULL || (root_sc->tulip_features & (TULIP_HAVE_OKROM|TULIP_HAVE_SLAVEDROM)) == TULIP_HAVE_OKROM) break; root_sc = NULL; } if (root_sc != NULL && (root_sc->tulip_features & TULIP_HAVE_BASEROM) && root_sc->tulip_chipid == sc->tulip_chipid && root_sc->tulip_pci_busno == sc->tulip_pci_busno) { sc->tulip_features |= TULIP_HAVE_SLAVEDROM; sc->tulip_boardsw = root_sc->tulip_boardsw; strcpy(sc->tulip_boardid, root_sc->tulip_boardid); if (sc->tulip_boardsw->bd_type == TULIP_21140_ISV) { bcopy(root_sc->tulip_rombuf, sc->tulip_rombuf, sizeof(sc->tulip_rombuf)); if (!tulip_srom_decode(sc)) return -5; } else { bcopy(root_sc->tulip_enaddr, sc->tulip_enaddr, 6); sc->tulip_enaddr[5] += sc->tulip_unit - root_sc->tulip_unit; } /* * Now for a truly disgusting kludge: all 4 21040s on * the ZX314 share the same INTA line so the mapping * setup by the BIOS on the PCI bridge is worthless. * Rather than reprogramming the value in the config * register, we will handle this internally. */ if (root_sc->tulip_features & TULIP_HAVE_SHAREDINTR) { sc->tulip_slaves = root_sc->tulip_slaves; root_sc->tulip_slaves = sc; sc->tulip_features |= TULIP_HAVE_SLAVEDINTR; } return 0; } } } /* * This is the standard DEC address ROM test. */ if (bcmp(&sc->tulip_rombuf[24], testpat, 8) != 0) return -3; tmpbuf[0] = sc->tulip_rombuf[15]; tmpbuf[1] = sc->tulip_rombuf[14]; tmpbuf[2] = sc->tulip_rombuf[13]; tmpbuf[3] = sc->tulip_rombuf[12]; tmpbuf[4] = sc->tulip_rombuf[11]; tmpbuf[5] = sc->tulip_rombuf[10]; tmpbuf[6] = sc->tulip_rombuf[9]; tmpbuf[7] = sc->tulip_rombuf[8]; if (bcmp(&sc->tulip_rombuf[0], tmpbuf, 8) != 0) return -2; bcopy(sc->tulip_rombuf, sc->tulip_enaddr, 6); cksum = *(u_int16_t *) &sc->tulip_enaddr[0]; cksum *= 2; if (cksum > 65535) cksum -= 65535; cksum += *(u_int16_t *) &sc->tulip_enaddr[2]; if (cksum > 65535) cksum -= 65535; cksum *= 2; if (cksum > 65535) cksum -= 65535; cksum += *(u_int16_t *) &sc->tulip_enaddr[4]; if (cksum >= 65535) cksum -= 65535; rom_cksum = *(u_int16_t *) &sc->tulip_rombuf[6]; if (cksum != rom_cksum) return -1; check_oui: /* * Check for various boards based on OUI. Did I say braindead? */ for (idx = 0; tulip_vendors[idx].vendor_identify_nic != NULL; idx++) { if (bcmp(sc->tulip_enaddr, tulip_vendors[idx].vendor_oui, 3) == 0) { (*tulip_vendors[idx].vendor_identify_nic)(sc); break; } } sc->tulip_features |= TULIP_HAVE_OKROM; return 0; } static void tulip_ifmedia_add(tulip_softc_t * const sc) { tulip_media_t media; int medias = 0; TULIP_LOCK_ASSERT(sc); for (media = TULIP_MEDIA_UNKNOWN; media < TULIP_MEDIA_MAX; media++) { if (sc->tulip_mediums[media] != NULL) { ifmedia_add(&sc->tulip_ifmedia, tulip_media_to_ifmedia[media], 0, 0); medias++; } } if (medias == 0) { sc->tulip_features |= TULIP_HAVE_NOMEDIA; ifmedia_add(&sc->tulip_ifmedia, IFM_ETHER | IFM_NONE, 0, 0); ifmedia_set(&sc->tulip_ifmedia, IFM_ETHER | IFM_NONE); } else if (sc->tulip_media == TULIP_MEDIA_UNKNOWN) { ifmedia_add(&sc->tulip_ifmedia, IFM_ETHER | IFM_AUTO, 0, 0); ifmedia_set(&sc->tulip_ifmedia, IFM_ETHER | IFM_AUTO); } else { ifmedia_set(&sc->tulip_ifmedia, tulip_media_to_ifmedia[sc->tulip_media]); sc->tulip_flags |= TULIP_PRINTMEDIA; tulip_linkup(sc, sc->tulip_media); } } static int tulip_ifmedia_change(struct ifnet * const ifp) { tulip_softc_t * const sc = (tulip_softc_t *)ifp->if_softc; TULIP_LOCK(sc); sc->tulip_flags |= TULIP_NEEDRESET; sc->tulip_probe_state = TULIP_PROBE_INACTIVE; sc->tulip_media = TULIP_MEDIA_UNKNOWN; if (IFM_SUBTYPE(sc->tulip_ifmedia.ifm_media) != IFM_AUTO) { tulip_media_t media; for (media = TULIP_MEDIA_UNKNOWN; media < TULIP_MEDIA_MAX; media++) { if (sc->tulip_mediums[media] != NULL && sc->tulip_ifmedia.ifm_media == tulip_media_to_ifmedia[media]) { sc->tulip_flags |= TULIP_PRINTMEDIA; sc->tulip_flags &= ~TULIP_DIDNWAY; tulip_linkup(sc, media); TULIP_UNLOCK(sc); return 0; } } } sc->tulip_flags &= ~(TULIP_TXPROBE_ACTIVE|TULIP_WANTRXACT); tulip_reset(sc); tulip_init_locked(sc); TULIP_UNLOCK(sc); return 0; } /* * Media status callback */ static void tulip_ifmedia_status(struct ifnet * const ifp, struct ifmediareq *req) { tulip_softc_t *sc = (tulip_softc_t *)ifp->if_softc; TULIP_LOCK(sc); if (sc->tulip_media == TULIP_MEDIA_UNKNOWN) { TULIP_UNLOCK(sc); return; } req->ifm_status = IFM_AVALID; if (sc->tulip_flags & TULIP_LINKUP) req->ifm_status |= IFM_ACTIVE; req->ifm_active = tulip_media_to_ifmedia[sc->tulip_media]; TULIP_UNLOCK(sc); } static void tulip_addr_filter(tulip_softc_t * const sc) { struct ifmultiaddr *ifma; struct ifnet *ifp; u_char *addrp; u_int16_t eaddr[ETHER_ADDR_LEN/2]; int multicnt; TULIP_LOCK_ASSERT(sc); sc->tulip_flags &= ~(TULIP_WANTHASHPERFECT|TULIP_WANTHASHONLY|TULIP_ALLMULTI); sc->tulip_flags |= TULIP_WANTSETUP|TULIP_WANTTXSTART; sc->tulip_cmdmode &= ~TULIP_CMD_RXRUN; sc->tulip_intrmask &= ~TULIP_STS_RXSTOPPED; #if defined(IFF_ALLMULTI) if (sc->tulip_ifp->if_flags & IFF_ALLMULTI) sc->tulip_flags |= TULIP_ALLMULTI ; #endif multicnt = 0; ifp = sc->tulip_ifp; if_maddr_rlock(ifp); /* Copy MAC address on stack to align. */ if (ifp->if_input != NULL) bcopy(IF_LLADDR(ifp), eaddr, ETHER_ADDR_LEN); else bcopy(sc->tulip_enaddr, eaddr, ETHER_ADDR_LEN); TAILQ_FOREACH(ifma, &ifp->if_multiaddrs, ifma_link) { if (ifma->ifma_addr->sa_family == AF_LINK) multicnt++; } if (multicnt > 14) { u_int32_t *sp = sc->tulip_setupdata; unsigned hash; /* * Some early passes of the 21140 have broken implementations of * hash-perfect mode. When we get too many multicasts for perfect * filtering with these chips, we need to switch into hash-only * mode (this is better than all-multicast on network with lots * of multicast traffic). */ if (sc->tulip_features & TULIP_HAVE_BROKEN_HASH) sc->tulip_flags |= TULIP_WANTHASHONLY; else sc->tulip_flags |= TULIP_WANTHASHPERFECT; /* * If we have more than 14 multicasts, we have * go into hash perfect mode (512 bit multicast * hash and one perfect hardware). */ bzero(sc->tulip_setupdata, sizeof(sc->tulip_setupdata)); TAILQ_FOREACH(ifma, &ifp->if_multiaddrs, ifma_link) { if (ifma->ifma_addr->sa_family != AF_LINK) continue; hash = tulip_mchash(LLADDR((struct sockaddr_dl *)ifma->ifma_addr)); sp[hash >> 4] |= htole32(1 << (hash & 0xF)); } /* * No reason to use a hash if we are going to be * receiving every multicast. */ if ((sc->tulip_flags & TULIP_ALLMULTI) == 0) { hash = tulip_mchash(ifp->if_broadcastaddr); sp[hash >> 4] |= htole32(1 << (hash & 0xF)); if (sc->tulip_flags & TULIP_WANTHASHONLY) { hash = tulip_mchash((caddr_t)eaddr); sp[hash >> 4] |= htole32(1 << (hash & 0xF)); } else { sp[39] = TULIP_SP_MAC(eaddr[0]); sp[40] = TULIP_SP_MAC(eaddr[1]); sp[41] = TULIP_SP_MAC(eaddr[2]); } } } if ((sc->tulip_flags & (TULIP_WANTHASHPERFECT|TULIP_WANTHASHONLY)) == 0) { u_int32_t *sp = sc->tulip_setupdata; int idx = 0; if ((sc->tulip_flags & TULIP_ALLMULTI) == 0) { /* * Else can get perfect filtering for 16 addresses. */ TAILQ_FOREACH(ifma, &ifp->if_multiaddrs, ifma_link) { if (ifma->ifma_addr->sa_family != AF_LINK) continue; addrp = LLADDR((struct sockaddr_dl *)ifma->ifma_addr); *sp++ = TULIP_SP_MAC(((u_int16_t *)addrp)[0]); *sp++ = TULIP_SP_MAC(((u_int16_t *)addrp)[1]); *sp++ = TULIP_SP_MAC(((u_int16_t *)addrp)[2]); idx++; } /* * Add the broadcast address. */ idx++; *sp++ = TULIP_SP_MAC(0xFFFF); *sp++ = TULIP_SP_MAC(0xFFFF); *sp++ = TULIP_SP_MAC(0xFFFF); } /* * Pad the rest with our hardware address */ for (; idx < 16; idx++) { *sp++ = TULIP_SP_MAC(eaddr[0]); *sp++ = TULIP_SP_MAC(eaddr[1]); *sp++ = TULIP_SP_MAC(eaddr[2]); } } if_maddr_runlock(ifp); } static void tulip_reset(tulip_softc_t * const sc) { tulip_ringinfo_t *ri; tulip_descinfo_t *di; struct mbuf *m; u_int32_t inreset = (sc->tulip_flags & TULIP_INRESET); TULIP_LOCK_ASSERT(sc); CTR1(KTR_TULIP, "tulip_reset: inreset %d", inreset); /* * Brilliant. Simply brilliant. When switching modes/speeds * on a 2114*, you need to set the appriopriate MII/PCS/SCL/PS * bits in CSR6 and then do a software reset to get the 21140 * to properly reset its internal pathways to the right places. * Grrrr. */ if ((sc->tulip_flags & TULIP_DEVICEPROBE) == 0 && sc->tulip_boardsw->bd_media_preset != NULL) (*sc->tulip_boardsw->bd_media_preset)(sc); TULIP_CSR_WRITE(sc, csr_busmode, TULIP_BUSMODE_SWRESET); DELAY(10); /* Wait 10 microseconds (actually 50 PCI cycles but at 33MHz that comes to two microseconds but wait a bit longer anyways) */ if (!inreset) { sc->tulip_flags |= TULIP_INRESET; sc->tulip_flags &= ~(TULIP_NEEDRESET|TULIP_RXBUFSLOW); sc->tulip_ifp->if_drv_flags &= ~IFF_DRV_OACTIVE; } TULIP_CSR_WRITE(sc, csr_txlist, sc->tulip_txinfo.ri_dma_addr & 0xffffffff); TULIP_CSR_WRITE(sc, csr_rxlist, sc->tulip_rxinfo.ri_dma_addr & 0xffffffff); TULIP_CSR_WRITE(sc, csr_busmode, (1 << (3 /*pci_max_burst_len*/ + 8)) |TULIP_BUSMODE_CACHE_ALIGN8 |TULIP_BUSMODE_READMULTIPLE |(BYTE_ORDER != LITTLE_ENDIAN ? TULIP_BUSMODE_DESC_BIGENDIAN : 0)); sc->tulip_txtimer = 0; /* * Free all the mbufs that were on the transmit ring. */ CTR0(KTR_TULIP, "tulip_reset: drain transmit ring"); ri = &sc->tulip_txinfo; for (di = ri->ri_first; di < ri->ri_last; di++) { m = tulip_dequeue_mbuf(ri, di, SYNC_NONE); if (m != NULL) m_freem(m); di->di_desc->d_status = 0; } ri->ri_nextin = ri->ri_nextout = ri->ri_first; ri->ri_free = ri->ri_max; TULIP_TXDESC_PRESYNC(ri); /* * We need to collect all the mbufs that were on the * receive ring before we reinit it either to put * them back on or to know if we have to allocate * more. */ CTR0(KTR_TULIP, "tulip_reset: drain receive ring"); ri = &sc->tulip_rxinfo; ri->ri_nextin = ri->ri_nextout = ri->ri_first; ri->ri_free = ri->ri_max; for (di = ri->ri_first; di < ri->ri_last; di++) { di->di_desc->d_status = 0; di->di_desc->d_length1 = 0; di->di_desc->d_addr1 = 0; di->di_desc->d_length2 = 0; di->di_desc->d_addr2 = 0; } TULIP_RXDESC_PRESYNC(ri); for (di = ri->ri_first; di < ri->ri_last; di++) { m = tulip_dequeue_mbuf(ri, di, SYNC_NONE); if (m != NULL) m_freem(m); } /* * If tulip_reset is being called recursively, exit quickly knowing * that when the outer tulip_reset returns all the right stuff will * have happened. */ if (inreset) return; sc->tulip_intrmask |= TULIP_STS_NORMALINTR|TULIP_STS_RXINTR|TULIP_STS_TXINTR |TULIP_STS_ABNRMLINTR|TULIP_STS_SYSERROR|TULIP_STS_TXSTOPPED |TULIP_STS_TXUNDERFLOW|TULIP_STS_TXBABBLE |TULIP_STS_RXSTOPPED; if ((sc->tulip_flags & TULIP_DEVICEPROBE) == 0) (*sc->tulip_boardsw->bd_media_select)(sc); #if defined(TULIP_DEBUG) if ((sc->tulip_flags & TULIP_NEEDRESET) == TULIP_NEEDRESET) device_printf(sc->tulip_dev, "tulip_reset: additional reset needed?!?\n"); #endif if (bootverbose) tulip_media_print(sc); if (sc->tulip_features & TULIP_HAVE_DUALSENSE) TULIP_CSR_WRITE(sc, csr_sia_status, TULIP_CSR_READ(sc, csr_sia_status)); sc->tulip_flags &= ~(TULIP_DOINGSETUP|TULIP_WANTSETUP|TULIP_INRESET |TULIP_RXACT); } static void tulip_init(void *arg) { tulip_softc_t *sc = (tulip_softc_t *)arg; TULIP_LOCK(sc); tulip_init_locked(sc); TULIP_UNLOCK(sc); } static void tulip_init_locked(tulip_softc_t * const sc) { CTR0(KTR_TULIP, "tulip_init_locked"); if (sc->tulip_ifp->if_flags & IFF_UP) { if ((sc->tulip_ifp->if_drv_flags & IFF_DRV_RUNNING) == 0) { /* initialize the media */ CTR0(KTR_TULIP, "tulip_init_locked: up but not running, reset chip"); tulip_reset(sc); } tulip_addr_filter(sc); sc->tulip_ifp->if_drv_flags |= IFF_DRV_RUNNING; if (sc->tulip_ifp->if_flags & IFF_PROMISC) { sc->tulip_flags |= TULIP_PROMISC; sc->tulip_cmdmode |= TULIP_CMD_PROMISCUOUS; sc->tulip_intrmask |= TULIP_STS_TXINTR; } else { sc->tulip_flags &= ~TULIP_PROMISC; sc->tulip_cmdmode &= ~TULIP_CMD_PROMISCUOUS; if (sc->tulip_flags & TULIP_ALLMULTI) { sc->tulip_cmdmode |= TULIP_CMD_ALLMULTI; } else { sc->tulip_cmdmode &= ~TULIP_CMD_ALLMULTI; } } sc->tulip_cmdmode |= TULIP_CMD_TXRUN; if ((sc->tulip_flags & (TULIP_TXPROBE_ACTIVE|TULIP_WANTSETUP)) == 0) { tulip_rx_intr(sc); sc->tulip_cmdmode |= TULIP_CMD_RXRUN; sc->tulip_intrmask |= TULIP_STS_RXSTOPPED; } else { sc->tulip_ifp->if_drv_flags |= IFF_DRV_OACTIVE; sc->tulip_cmdmode &= ~TULIP_CMD_RXRUN; sc->tulip_intrmask &= ~TULIP_STS_RXSTOPPED; } CTR2(KTR_TULIP, "tulip_init_locked: intr mask %08x cmdmode %08x", sc->tulip_intrmask, sc->tulip_cmdmode); TULIP_CSR_WRITE(sc, csr_intr, sc->tulip_intrmask); TULIP_CSR_WRITE(sc, csr_command, sc->tulip_cmdmode); CTR1(KTR_TULIP, "tulip_init_locked: status %08x\n", TULIP_CSR_READ(sc, csr_status)); if ((sc->tulip_flags & (TULIP_WANTSETUP|TULIP_TXPROBE_ACTIVE)) == TULIP_WANTSETUP) tulip_txput_setup(sc); callout_reset(&sc->tulip_stat_timer, hz, tulip_watchdog, sc); } else { CTR0(KTR_TULIP, "tulip_init_locked: not up, reset chip"); sc->tulip_ifp->if_drv_flags &= ~IFF_DRV_RUNNING; tulip_reset(sc); tulip_addr_filter(sc); callout_stop(&sc->tulip_stat_timer); } } #define DESC_STATUS(di) (((volatile tulip_desc_t *)((di)->di_desc))->d_status) #define DESC_FLAG(di) ((di)->di_desc->d_flag) static void tulip_rx_intr(tulip_softc_t * const sc) { TULIP_PERFSTART(rxintr) tulip_ringinfo_t * const ri = &sc->tulip_rxinfo; struct ifnet * const ifp = sc->tulip_ifp; int fillok = 1; #if defined(TULIP_DEBUG) int cnt = 0; #endif TULIP_LOCK_ASSERT(sc); CTR0(KTR_TULIP, "tulip_rx_intr: start"); for (;;) { TULIP_PERFSTART(rxget) tulip_descinfo_t *eop = ri->ri_nextin, *dip; int total_len = 0, last_offset = 0; struct mbuf *ms = NULL, *me = NULL; int accept = 0; int error; if (fillok && (ri->ri_max - ri->ri_free) < TULIP_RXQ_TARGET) goto queue_mbuf; #if defined(TULIP_DEBUG) if (cnt == ri->ri_max) break; #endif /* * If the TULIP has no descriptors, there can't be any receive * descriptors to process. */ if (eop == ri->ri_nextout) break; /* * 90% of the packets will fit in one descriptor. So we optimize * for that case. */ TULIP_RXDESC_POSTSYNC(ri); if ((DESC_STATUS(eop) & (TULIP_DSTS_OWNER|TULIP_DSTS_RxFIRSTDESC|TULIP_DSTS_RxLASTDESC)) == (TULIP_DSTS_RxFIRSTDESC|TULIP_DSTS_RxLASTDESC)) { ms = tulip_dequeue_mbuf(ri, eop, SYNC_RX); CTR2(KTR_TULIP, "tulip_rx_intr: single packet mbuf %p from descriptor %td", ms, eop - ri->ri_first); me = ms; ri->ri_free++; } else { /* * If still owned by the TULIP, don't touch it. */ if (DESC_STATUS(eop) & TULIP_DSTS_OWNER) break; /* * It is possible (though improbable unless MCLBYTES < 1518) for * a received packet to cross more than one receive descriptor. * We first loop through the descriptor ring making sure we have * received a complete packet. If not, we bail until the next * interrupt. */ dip = eop; while ((DESC_STATUS(eop) & TULIP_DSTS_RxLASTDESC) == 0) { if (++eop == ri->ri_last) eop = ri->ri_first; TULIP_RXDESC_POSTSYNC(ri); if (eop == ri->ri_nextout || DESC_STATUS(eop) & TULIP_DSTS_OWNER) { #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_rxintrs++; sc->tulip_dbg.dbg_rxpktsperintr[cnt]++; #endif TULIP_PERFEND(rxget); TULIP_PERFEND(rxintr); return; } total_len++; } /* * Dequeue the first buffer for the start of the packet. Hopefully * this will be the only one we need to dequeue. However, if the * packet consumed multiple descriptors, then we need to dequeue * those buffers and chain to the starting mbuf. All buffers but * the last buffer have the same length so we can set that now. * (we add to last_offset instead of multiplying since we normally * won't go into the loop and thereby saving ourselves from * doing a multiplication by 0 in the normal case). */ ms = tulip_dequeue_mbuf(ri, dip, SYNC_RX); CTR2(KTR_TULIP, "tulip_rx_intr: start packet mbuf %p from descriptor %td", ms, dip - ri->ri_first); ri->ri_free++; for (me = ms; total_len > 0; total_len--) { me->m_len = TULIP_RX_BUFLEN; last_offset += TULIP_RX_BUFLEN; if (++dip == ri->ri_last) dip = ri->ri_first; me->m_next = tulip_dequeue_mbuf(ri, dip, SYNC_RX); ri->ri_free++; me = me->m_next; CTR2(KTR_TULIP, "tulip_rx_intr: cont packet mbuf %p from descriptor %td", me, dip - ri->ri_first); } KASSERT(dip == eop, ("mismatched descinfo structs")); } /* * Now get the size of received packet (minus the CRC). */ total_len = ((DESC_STATUS(eop) >> 16) & 0x7FFF) - ETHER_CRC_LEN; if ((sc->tulip_flags & TULIP_RXIGNORE) == 0 && ((DESC_STATUS(eop) & TULIP_DSTS_ERRSUM) == 0)) { me->m_len = total_len - last_offset; sc->tulip_flags |= TULIP_RXACT; accept = 1; CTR1(KTR_TULIP, "tulip_rx_intr: good packet; length %d", total_len); } else { CTR1(KTR_TULIP, "tulip_rx_intr: bad packet; status %08x", DESC_STATUS(eop)); if_inc_counter(ifp, IFCOUNTER_IERRORS, 1); if (DESC_STATUS(eop) & (TULIP_DSTS_RxBADLENGTH|TULIP_DSTS_RxOVERFLOW|TULIP_DSTS_RxWATCHDOG)) { sc->tulip_dot3stats.dot3StatsInternalMacReceiveErrors++; } else { #if defined(TULIP_VERBOSE) const char *error = NULL; #endif if (DESC_STATUS(eop) & TULIP_DSTS_RxTOOLONG) { sc->tulip_dot3stats.dot3StatsFrameTooLongs++; #if defined(TULIP_VERBOSE) error = "frame too long"; #endif } if (DESC_STATUS(eop) & TULIP_DSTS_RxBADCRC) { if (DESC_STATUS(eop) & TULIP_DSTS_RxDRBBLBIT) { sc->tulip_dot3stats.dot3StatsAlignmentErrors++; #if defined(TULIP_VERBOSE) error = "alignment error"; #endif } else { sc->tulip_dot3stats.dot3StatsFCSErrors++; #if defined(TULIP_VERBOSE) error = "bad crc"; #endif } } #if defined(TULIP_VERBOSE) if (error != NULL && (sc->tulip_flags & TULIP_NOMESSAGES) == 0) { device_printf(sc->tulip_dev, "receive: %6D: %s\n", mtod(ms, u_char *) + 6, ":", error); sc->tulip_flags |= TULIP_NOMESSAGES; } #endif } } #if defined(TULIP_DEBUG) cnt++; #endif if_inc_counter(ifp, IFCOUNTER_IPACKETS, 1); if (++eop == ri->ri_last) eop = ri->ri_first; ri->ri_nextin = eop; queue_mbuf: /* * We have received a good packet that needs to be passed up the * stack. */ if (accept) { struct mbuf *m0; KASSERT(ms != NULL, ("no packet to accept")); #ifndef __NO_STRICT_ALIGNMENT /* * Copy the data into a new mbuf that is properly aligned. If * we fail to allocate a new mbuf, then drop the packet. We will * reuse the same rx buffer ('ms') below for another packet * regardless. */ m0 = m_devget(mtod(ms, caddr_t), total_len, ETHER_ALIGN, ifp, NULL); if (m0 == NULL) { if_inc_counter(ifp, IFCOUNTER_IERRORS, 1); goto skip_input; } #else /* * Update the header for the mbuf referencing this receive * buffer and pass it up the stack. Allocate a new mbuf cluster * to replace the one we just passed up the stack. * * Note that if this packet crossed multiple descriptors * we don't even try to reallocate all the mbufs here. * Instead we rely on the test at the beginning of * the loop to refill for the extra consumed mbufs. */ ms->m_pkthdr.len = total_len; ms->m_pkthdr.rcvif = ifp; m0 = ms; ms = m_getcl(M_NOWAIT, MT_DATA, M_PKTHDR); #endif TULIP_UNLOCK(sc); CTR1(KTR_TULIP, "tulip_rx_intr: passing %p to upper layer", m0); (*ifp->if_input)(ifp, m0); TULIP_LOCK(sc); } else if (ms == NULL) /* * If we are priming the TULIP with mbufs, then allocate * a new cluster for the next descriptor. */ ms = m_getcl(M_NOWAIT, MT_DATA, M_PKTHDR); #ifndef __NO_STRICT_ALIGNMENT skip_input: #endif if (ms == NULL) { /* * Couldn't allocate a new buffer. Don't bother * trying to replenish the receive queue. */ fillok = 0; sc->tulip_flags |= TULIP_RXBUFSLOW; #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_rxlowbufs++; #endif TULIP_PERFEND(rxget); continue; } /* * Now give the buffer(s) to the TULIP and save in our * receive queue. */ do { tulip_descinfo_t * const nextout = ri->ri_nextout; M_ASSERTPKTHDR(ms); KASSERT(ms->m_data == ms->m_ext.ext_buf, ("rx mbuf data doesn't point to cluster")); ms->m_len = ms->m_pkthdr.len = TULIP_RX_BUFLEN; error = bus_dmamap_load_mbuf(ri->ri_data_tag, *nextout->di_map, ms, tulip_dma_map_rxbuf, nextout->di_desc, BUS_DMA_NOWAIT); if (error) { device_printf(sc->tulip_dev, "unable to load rx map, error = %d\n", error); panic("tulip_rx_intr"); /* XXX */ } nextout->di_desc->d_status = TULIP_DSTS_OWNER; KASSERT(nextout->di_mbuf == NULL, ("clobbering earlier rx mbuf")); nextout->di_mbuf = ms; CTR2(KTR_TULIP, "tulip_rx_intr: enqueued mbuf %p to descriptor %td", ms, nextout - ri->ri_first); TULIP_RXDESC_POSTSYNC(ri); if (++ri->ri_nextout == ri->ri_last) ri->ri_nextout = ri->ri_first; ri->ri_free--; me = ms->m_next; ms->m_next = NULL; } while ((ms = me) != NULL); if ((ri->ri_max - ri->ri_free) >= TULIP_RXQ_TARGET) sc->tulip_flags &= ~TULIP_RXBUFSLOW; TULIP_PERFEND(rxget); } #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_rxintrs++; sc->tulip_dbg.dbg_rxpktsperintr[cnt]++; #endif TULIP_PERFEND(rxintr); } static int tulip_tx_intr(tulip_softc_t * const sc) { TULIP_PERFSTART(txintr) tulip_ringinfo_t * const ri = &sc->tulip_txinfo; struct mbuf *m; int xmits = 0; int descs = 0; CTR0(KTR_TULIP, "tulip_tx_intr: start"); TULIP_LOCK_ASSERT(sc); while (ri->ri_free < ri->ri_max) { u_int32_t d_flag; TULIP_TXDESC_POSTSYNC(ri); if (DESC_STATUS(ri->ri_nextin) & TULIP_DSTS_OWNER) break; ri->ri_free++; descs++; d_flag = DESC_FLAG(ri->ri_nextin); if (d_flag & TULIP_DFLAG_TxLASTSEG) { if (d_flag & TULIP_DFLAG_TxSETUPPKT) { CTR2(KTR_TULIP, "tulip_tx_intr: setup packet from descriptor %td: %08x", ri->ri_nextin - ri->ri_first, DESC_STATUS(ri->ri_nextin)); /* * We've just finished processing a setup packet. * Mark that we finished it. If there's not * another pending, startup the TULIP receiver. * Make sure we ack the RXSTOPPED so we won't get * an abormal interrupt indication. */ bus_dmamap_sync(sc->tulip_setup_tag, sc->tulip_setup_map, BUS_DMASYNC_POSTWRITE); sc->tulip_flags &= ~(TULIP_DOINGSETUP|TULIP_HASHONLY); if (DESC_FLAG(ri->ri_nextin) & TULIP_DFLAG_TxINVRSFILT) sc->tulip_flags |= TULIP_HASHONLY; if ((sc->tulip_flags & (TULIP_WANTSETUP|TULIP_TXPROBE_ACTIVE)) == 0) { tulip_rx_intr(sc); sc->tulip_cmdmode |= TULIP_CMD_RXRUN; sc->tulip_intrmask |= TULIP_STS_RXSTOPPED; CTR2(KTR_TULIP, "tulip_tx_intr: intr mask %08x cmdmode %08x", sc->tulip_intrmask, sc->tulip_cmdmode); TULIP_CSR_WRITE(sc, csr_status, TULIP_STS_RXSTOPPED); TULIP_CSR_WRITE(sc, csr_intr, sc->tulip_intrmask); TULIP_CSR_WRITE(sc, csr_command, sc->tulip_cmdmode); } } else { const u_int32_t d_status = DESC_STATUS(ri->ri_nextin); m = tulip_dequeue_mbuf(ri, ri->ri_nextin, SYNC_TX); CTR2(KTR_TULIP, "tulip_tx_intr: data packet %p from descriptor %td", m, ri->ri_nextin - ri->ri_first); if (m != NULL) { m_freem(m); #if defined(TULIP_DEBUG) } else { device_printf(sc->tulip_dev, "tx_intr: failed to dequeue mbuf?!?\n"); #endif } if (sc->tulip_flags & TULIP_TXPROBE_ACTIVE) { tulip_mediapoll_event_t event = TULIP_MEDIAPOLL_TXPROBE_OK; if (d_status & (TULIP_DSTS_TxNOCARR|TULIP_DSTS_TxEXCCOLL)) { #if defined(TULIP_DEBUG) if (d_status & TULIP_DSTS_TxNOCARR) sc->tulip_dbg.dbg_txprobe_nocarr++; if (d_status & TULIP_DSTS_TxEXCCOLL) sc->tulip_dbg.dbg_txprobe_exccoll++; #endif event = TULIP_MEDIAPOLL_TXPROBE_FAILED; } (*sc->tulip_boardsw->bd_media_poll)(sc, event); /* * Escape from the loop before media poll has reset the TULIP! */ break; } else { xmits++; if (d_status & TULIP_DSTS_ERRSUM) { CTR1(KTR_TULIP, "tulip_tx_intr: output error: %08x", d_status); if_inc_counter(sc->tulip_ifp, IFCOUNTER_OERRORS, 1); if (d_status & TULIP_DSTS_TxEXCCOLL) sc->tulip_dot3stats.dot3StatsExcessiveCollisions++; if (d_status & TULIP_DSTS_TxLATECOLL) sc->tulip_dot3stats.dot3StatsLateCollisions++; if (d_status & (TULIP_DSTS_TxNOCARR|TULIP_DSTS_TxCARRLOSS)) sc->tulip_dot3stats.dot3StatsCarrierSenseErrors++; if (d_status & (TULIP_DSTS_TxUNDERFLOW|TULIP_DSTS_TxBABBLE)) sc->tulip_dot3stats.dot3StatsInternalMacTransmitErrors++; if (d_status & TULIP_DSTS_TxUNDERFLOW) sc->tulip_dot3stats.dot3StatsInternalTransmitUnderflows++; if (d_status & TULIP_DSTS_TxBABBLE) sc->tulip_dot3stats.dot3StatsInternalTransmitBabbles++; } else { u_int32_t collisions = (d_status & TULIP_DSTS_TxCOLLMASK) >> TULIP_DSTS_V_TxCOLLCNT; CTR2(KTR_TULIP, "tulip_tx_intr: output ok, collisions %d, status %08x", collisions, d_status); if_inc_counter(sc->tulip_ifp, IFCOUNTER_COLLISIONS, collisions); if (collisions == 1) sc->tulip_dot3stats.dot3StatsSingleCollisionFrames++; else if (collisions > 1) sc->tulip_dot3stats.dot3StatsMultipleCollisionFrames++; else if (d_status & TULIP_DSTS_TxDEFERRED) sc->tulip_dot3stats.dot3StatsDeferredTransmissions++; /* * SQE is only valid for 10baseT/BNC/AUI when not * running in full-duplex. In order to speed up the * test, the corresponding bit in tulip_flags needs to * set as well to get us to count SQE Test Errors. */ if (d_status & TULIP_DSTS_TxNOHRTBT & sc->tulip_flags) sc->tulip_dot3stats.dot3StatsSQETestErrors++; } } } } if (++ri->ri_nextin == ri->ri_last) ri->ri_nextin = ri->ri_first; if ((sc->tulip_flags & TULIP_TXPROBE_ACTIVE) == 0) sc->tulip_ifp->if_drv_flags &= ~IFF_DRV_OACTIVE; } /* * If nothing left to transmit, disable the timer. * Else if progress, reset the timer back to 2 ticks. */ if (ri->ri_free == ri->ri_max || (sc->tulip_flags & TULIP_TXPROBE_ACTIVE)) sc->tulip_txtimer = 0; else if (xmits > 0) sc->tulip_txtimer = TULIP_TXTIMER; if_inc_counter(sc->tulip_ifp, IFCOUNTER_OPACKETS, xmits); TULIP_PERFEND(txintr); return descs; } static void tulip_print_abnormal_interrupt(tulip_softc_t * const sc, u_int32_t csr) { const char * const *msgp = tulip_status_bits; const char *sep; u_int32_t mask; const char thrsh[] = "72|128\0\0\0" "96|256\0\0\0" "128|512\0\0" "160|1024"; TULIP_LOCK_ASSERT(sc); csr &= (1 << (sizeof(tulip_status_bits)/sizeof(tulip_status_bits[0]))) - 1; device_printf(sc->tulip_dev, "abnormal interrupt:"); for (sep = " ", mask = 1; mask <= csr; mask <<= 1, msgp++) { if ((csr & mask) && *msgp != NULL) { printf("%s%s", sep, *msgp); if (mask == TULIP_STS_TXUNDERFLOW && (sc->tulip_flags & TULIP_NEWTXTHRESH)) { sc->tulip_flags &= ~TULIP_NEWTXTHRESH; if (sc->tulip_cmdmode & TULIP_CMD_STOREFWD) { printf(" (switching to store-and-forward mode)"); } else { printf(" (raising TX threshold to %s)", &thrsh[9 * ((sc->tulip_cmdmode & TULIP_CMD_THRESHOLDCTL) >> 14)]); } } sep = ", "; } } printf("\n"); } static void tulip_intr_handler(tulip_softc_t * const sc) { TULIP_PERFSTART(intr) u_int32_t csr; CTR0(KTR_TULIP, "tulip_intr_handler invoked"); TULIP_LOCK_ASSERT(sc); while ((csr = TULIP_CSR_READ(sc, csr_status)) & sc->tulip_intrmask) { TULIP_CSR_WRITE(sc, csr_status, csr); if (csr & TULIP_STS_SYSERROR) { sc->tulip_last_system_error = (csr & TULIP_STS_ERRORMASK) >> TULIP_STS_ERR_SHIFT; if (sc->tulip_flags & TULIP_NOMESSAGES) { sc->tulip_flags |= TULIP_SYSTEMERROR; } else { device_printf(sc->tulip_dev, "system error: %s\n", tulip_system_errors[sc->tulip_last_system_error]); } sc->tulip_flags |= TULIP_NEEDRESET; sc->tulip_system_errors++; break; } if (csr & (TULIP_STS_LINKPASS|TULIP_STS_LINKFAIL) & sc->tulip_intrmask) { #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_link_intrs++; #endif if (sc->tulip_boardsw->bd_media_poll != NULL) { (*sc->tulip_boardsw->bd_media_poll)(sc, csr & TULIP_STS_LINKFAIL ? TULIP_MEDIAPOLL_LINKFAIL : TULIP_MEDIAPOLL_LINKPASS); csr &= ~TULIP_STS_ABNRMLINTR; } tulip_media_print(sc); } if (csr & (TULIP_STS_RXINTR|TULIP_STS_RXNOBUF)) { u_int32_t misses = TULIP_CSR_READ(sc, csr_missed_frames); if (csr & TULIP_STS_RXNOBUF) sc->tulip_dot3stats.dot3StatsMissedFrames += misses & 0xFFFF; /* * Pass 2.[012] of the 21140A-A[CDE] may hang and/or corrupt data * on receive overflows. */ if ((misses & 0x0FFE0000) && (sc->tulip_features & TULIP_HAVE_RXBADOVRFLW)) { sc->tulip_dot3stats.dot3StatsInternalMacReceiveErrors++; /* * Stop the receiver process and spin until it's stopped. * Tell rx_intr to drop the packets it dequeues. */ TULIP_CSR_WRITE(sc, csr_command, sc->tulip_cmdmode & ~TULIP_CMD_RXRUN); while ((TULIP_CSR_READ(sc, csr_status) & TULIP_STS_RXSTOPPED) == 0) ; TULIP_CSR_WRITE(sc, csr_status, TULIP_STS_RXSTOPPED); sc->tulip_flags |= TULIP_RXIGNORE; } tulip_rx_intr(sc); if (sc->tulip_flags & TULIP_RXIGNORE) { /* * Restart the receiver. */ sc->tulip_flags &= ~TULIP_RXIGNORE; TULIP_CSR_WRITE(sc, csr_command, sc->tulip_cmdmode); } } if (csr & TULIP_STS_ABNRMLINTR) { u_int32_t tmp = csr & sc->tulip_intrmask & ~(TULIP_STS_NORMALINTR|TULIP_STS_ABNRMLINTR); if (csr & TULIP_STS_TXUNDERFLOW) { if ((sc->tulip_cmdmode & TULIP_CMD_THRESHOLDCTL) != TULIP_CMD_THRSHLD160) { sc->tulip_cmdmode += TULIP_CMD_THRSHLD96; sc->tulip_flags |= TULIP_NEWTXTHRESH; } else if (sc->tulip_features & TULIP_HAVE_STOREFWD) { sc->tulip_cmdmode |= TULIP_CMD_STOREFWD; sc->tulip_flags |= TULIP_NEWTXTHRESH; } } if (sc->tulip_flags & TULIP_NOMESSAGES) { sc->tulip_statusbits |= tmp; } else { tulip_print_abnormal_interrupt(sc, tmp); sc->tulip_flags |= TULIP_NOMESSAGES; } TULIP_CSR_WRITE(sc, csr_command, sc->tulip_cmdmode); } if (sc->tulip_flags & (TULIP_WANTTXSTART|TULIP_TXPROBE_ACTIVE|TULIP_DOINGSETUP|TULIP_PROMISC)) { tulip_tx_intr(sc); if ((sc->tulip_flags & TULIP_TXPROBE_ACTIVE) == 0) tulip_start_locked(sc); } } if (sc->tulip_flags & TULIP_NEEDRESET) { tulip_reset(sc); tulip_init_locked(sc); } TULIP_PERFEND(intr); } static void tulip_intr_shared(void *arg) { tulip_softc_t * sc = arg; for (; sc != NULL; sc = sc->tulip_slaves) { TULIP_LOCK(sc); #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_intrs++; #endif tulip_intr_handler(sc); TULIP_UNLOCK(sc); } } static void tulip_intr_normal(void *arg) { tulip_softc_t * sc = (tulip_softc_t *) arg; TULIP_LOCK(sc); #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_intrs++; #endif tulip_intr_handler(sc); TULIP_UNLOCK(sc); } static struct mbuf * tulip_txput(tulip_softc_t * const sc, struct mbuf *m) { TULIP_PERFSTART(txput) tulip_ringinfo_t * const ri = &sc->tulip_txinfo; tulip_descinfo_t *eop, *nextout; int segcnt, free; u_int32_t d_status; bus_dma_segment_t segs[TULIP_MAX_TXSEG]; bus_dmamap_t *map; int error, nsegs; struct mbuf *m0; TULIP_LOCK_ASSERT(sc); #if defined(TULIP_DEBUG) if ((sc->tulip_cmdmode & TULIP_CMD_TXRUN) == 0) { device_printf(sc->tulip_dev, "txput%s: tx not running\n", (sc->tulip_flags & TULIP_TXPROBE_ACTIVE) ? "(probe)" : ""); sc->tulip_flags |= TULIP_WANTTXSTART; sc->tulip_dbg.dbg_txput_finishes[0]++; goto finish; } #endif /* * Now we try to fill in our transmit descriptors. This is * a bit reminiscent of going on the Ark two by two * since each descriptor for the TULIP can describe * two buffers. So we advance through packet filling * each of the two entries at a time to fill each * descriptor. Clear the first and last segment bits * in each descriptor (actually just clear everything * but the end-of-ring or chain bits) to make sure * we don't get messed up by previously sent packets. * * We may fail to put the entire packet on the ring if * there is either not enough ring entries free or if the * packet has more than MAX_TXSEG segments. In the former * case we will just wait for the ring to empty. In the * latter case we have to recopy. */ #if defined(KTR) && KTR_TULIP segcnt = 1; m0 = m; while (m0->m_next != NULL) { segcnt++; m0 = m0->m_next; } CTR2(KTR_TULIP, "tulip_txput: sending packet %p (%d chunks)", m, segcnt); #endif d_status = 0; eop = nextout = ri->ri_nextout; segcnt = 0; free = ri->ri_free; /* * Reclaim some tx descriptors if we are out since we need at least one * free descriptor so that we have a dma_map to load the mbuf. */ if (free == 0) { #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_no_txmaps++; #endif free += tulip_tx_intr(sc); } if (free == 0) { sc->tulip_flags |= TULIP_WANTTXSTART; #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_txput_finishes[1]++; #endif goto finish; } error = bus_dmamap_load_mbuf_sg(ri->ri_data_tag, *eop->di_map, m, segs, &nsegs, BUS_DMA_NOWAIT); if (error != 0) { if (error == EFBIG) { /* * The packet exceeds the number of transmit buffer * entries that we can use for one packet, so we have * to recopy it into one mbuf and then try again. If * we can't recopy it, try again later. */ m0 = m_defrag(m, M_NOWAIT); if (m0 == NULL) { sc->tulip_flags |= TULIP_WANTTXSTART; #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_txput_finishes[2]++; #endif goto finish; } m = m0; error = bus_dmamap_load_mbuf_sg(ri->ri_data_tag, *eop->di_map, m, segs, &nsegs, BUS_DMA_NOWAIT); } if (error != 0) { device_printf(sc->tulip_dev, "unable to load tx map, error = %d\n", error); #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_txput_finishes[3]++; #endif goto finish; } } CTR1(KTR_TULIP, "tulip_txput: nsegs %d", nsegs); /* * Each descriptor allows for up to 2 fragments since we don't use * the descriptor chaining mode in this driver. */ if ((free -= (nsegs + 1) / 2) <= 0 /* * See if there's any unclaimed space in the transmit ring. */ && (free += tulip_tx_intr(sc)) <= 0) { /* * There's no more room but since nothing * has been committed at this point, just * show output is active, put back the * mbuf and return. */ sc->tulip_flags |= TULIP_WANTTXSTART; #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_txput_finishes[4]++; #endif bus_dmamap_unload(ri->ri_data_tag, *eop->di_map); goto finish; } for (; nsegs - segcnt > 1; segcnt += 2) { eop = nextout; eop->di_desc->d_flag &= TULIP_DFLAG_ENDRING|TULIP_DFLAG_CHAIN; eop->di_desc->d_status = d_status; eop->di_desc->d_addr1 = segs[segcnt].ds_addr & 0xffffffff; eop->di_desc->d_length1 = segs[segcnt].ds_len; eop->di_desc->d_addr2 = segs[segcnt+1].ds_addr & 0xffffffff; eop->di_desc->d_length2 = segs[segcnt+1].ds_len; d_status = TULIP_DSTS_OWNER; if (++nextout == ri->ri_last) nextout = ri->ri_first; } if (segcnt < nsegs) { eop = nextout; eop->di_desc->d_flag &= TULIP_DFLAG_ENDRING|TULIP_DFLAG_CHAIN; eop->di_desc->d_status = d_status; eop->di_desc->d_addr1 = segs[segcnt].ds_addr & 0xffffffff; eop->di_desc->d_length1 = segs[segcnt].ds_len; eop->di_desc->d_addr2 = 0; eop->di_desc->d_length2 = 0; if (++nextout == ri->ri_last) nextout = ri->ri_first; } /* * tulip_tx_intr() harvests the mbuf from the last descriptor in the * frame. We just used the dmamap in the first descriptor for the * load operation however. Thus, to let the tulip_dequeue_mbuf() call * in tulip_tx_intr() unload the correct dmamap, we swap the dmamap * pointers in the two descriptors if this is a multiple-descriptor * packet. */ if (eop != ri->ri_nextout) { map = eop->di_map; eop->di_map = ri->ri_nextout->di_map; ri->ri_nextout->di_map = map; } /* * bounce a copy to the bpf listener, if any. */ if (!(sc->tulip_flags & TULIP_DEVICEPROBE)) BPF_MTAP(sc->tulip_ifp, m); /* * The descriptors have been filled in. Now get ready * to transmit. */ CTR3(KTR_TULIP, "tulip_txput: enqueued mbuf %p to descriptors %td - %td", m, ri->ri_nextout - ri->ri_first, eop - ri->ri_first); KASSERT(eop->di_mbuf == NULL, ("clobbering earlier tx mbuf")); eop->di_mbuf = m; TULIP_TXMAP_PRESYNC(ri, ri->ri_nextout); m = NULL; /* * Make sure the next descriptor after this packet is owned * by us since it may have been set up above if we ran out * of room in the ring. */ nextout->di_desc->d_status = 0; TULIP_TXDESC_PRESYNC(ri); /* * Mark the last and first segments, indicate we want a transmit * complete interrupt, and tell it to transmit! */ eop->di_desc->d_flag |= TULIP_DFLAG_TxLASTSEG|TULIP_DFLAG_TxWANTINTR; /* * Note that ri->ri_nextout is still the start of the packet * and until we set the OWNER bit, we can still back out of * everything we have done. */ ri->ri_nextout->di_desc->d_flag |= TULIP_DFLAG_TxFIRSTSEG; TULIP_TXDESC_PRESYNC(ri); ri->ri_nextout->di_desc->d_status = TULIP_DSTS_OWNER; TULIP_TXDESC_PRESYNC(ri); /* * This advances the ring for us. */ ri->ri_nextout = nextout; ri->ri_free = free; TULIP_PERFEND(txput); if (sc->tulip_flags & TULIP_TXPROBE_ACTIVE) { TULIP_CSR_WRITE(sc, csr_txpoll, 1); sc->tulip_ifp->if_drv_flags |= IFF_DRV_OACTIVE; TULIP_PERFEND(txput); return NULL; } /* * switch back to the single queueing ifstart. */ sc->tulip_flags &= ~TULIP_WANTTXSTART; if (sc->tulip_txtimer == 0) sc->tulip_txtimer = TULIP_TXTIMER; #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_txput_finishes[5]++; #endif /* * If we want a txstart, there must be not enough space in the * transmit ring. So we want to enable transmit done interrupts * so we can immediately reclaim some space. When the transmit * interrupt is posted, the interrupt handler will call tx_intr * to reclaim space and then txstart (since WANTTXSTART is set). * txstart will move the packet into the transmit ring and clear * WANTTXSTART thereby causing TXINTR to be cleared. */ finish: #if defined(TULIP_DEBUG) sc->tulip_dbg.dbg_txput_finishes[6]++; #endif if (sc->tulip_flags & (TULIP_WANTTXSTART|TULIP_DOINGSETUP)) { sc->tulip_ifp->if_drv_flags |= IFF_DRV_OACTIVE; if ((sc->tulip_intrmask & TULIP_STS_TXINTR) == 0) { sc->tulip_intrmask |= TULIP_STS_TXINTR; TULIP_CSR_WRITE(sc, csr_intr, sc->tulip_intrmask); } } else if ((sc->tulip_flags & TULIP_PROMISC) == 0) { if (sc->tulip_intrmask & TULIP_STS_TXINTR) { sc->tulip_intrmask &= ~TULIP_STS_TXINTR; TULIP_CSR_WRITE(sc, csr_intr, sc->tulip_intrmask); } } TULIP_CSR_WRITE(sc, csr_txpoll, 1); TULIP_PERFEND(txput); return m; } static void tulip_txput_setup(tulip_softc_t * const sc) { tulip_ringinfo_t * const ri = &sc->tulip_txinfo; tulip_desc_t *nextout; TULIP_LOCK_ASSERT(sc); /* * We will transmit, at most, one setup packet per call to ifstart. */ #if defined(TULIP_DEBUG) if ((sc->tulip_cmdmode & TULIP_CMD_TXRUN) == 0) { device_printf(sc->tulip_dev, "txput_setup: tx not running\n"); sc->tulip_flags |= TULIP_WANTTXSTART; return; } #endif /* * Try to reclaim some free descriptors.. */ if (ri->ri_free < 2) tulip_tx_intr(sc); if ((sc->tulip_flags & TULIP_DOINGSETUP) || ri->ri_free == 1) { sc->tulip_flags |= TULIP_WANTTXSTART; return; } bcopy(sc->tulip_setupdata, sc->tulip_setupbuf, sizeof(sc->tulip_setupdata)); /* * Clear WANTSETUP and set DOINGSETUP. Since we know that WANTSETUP is * set and DOINGSETUP is clear doing an XOR of the two will DTRT. */ sc->tulip_flags ^= TULIP_WANTSETUP|TULIP_DOINGSETUP; ri->ri_free--; nextout = ri->ri_nextout->di_desc; nextout->d_flag &= TULIP_DFLAG_ENDRING|TULIP_DFLAG_CHAIN; nextout->d_flag |= TULIP_DFLAG_TxFIRSTSEG|TULIP_DFLAG_TxLASTSEG |TULIP_DFLAG_TxSETUPPKT|TULIP_DFLAG_TxWANTINTR; if (sc->tulip_flags & TULIP_WANTHASHPERFECT) nextout->d_flag |= TULIP_DFLAG_TxHASHFILT; else if (sc->tulip_flags & TULIP_WANTHASHONLY) nextout->d_flag |= TULIP_DFLAG_TxHASHFILT|TULIP_DFLAG_TxINVRSFILT; nextout->d_length2 = 0; nextout->d_addr2 = 0; nextout->d_length1 = sizeof(sc->tulip_setupdata); nextout->d_addr1 = sc->tulip_setup_dma_addr & 0xffffffff; bus_dmamap_sync(sc->tulip_setup_tag, sc->tulip_setup_map, BUS_DMASYNC_PREREAD|BUS_DMASYNC_PREWRITE); TULIP_TXDESC_PRESYNC(ri); CTR1(KTR_TULIP, "tulip_txput_setup: using descriptor %td", ri->ri_nextout - ri->ri_first); /* * Advance the ring for the next transmit packet. */ if (++ri->ri_nextout == ri->ri_last) ri->ri_nextout = ri->ri_first; /* * Make sure the next descriptor is owned by us since it * may have been set up above if we ran out of room in the * ring. */ ri->ri_nextout->di_desc->d_status = 0; TULIP_TXDESC_PRESYNC(ri); nextout->d_status = TULIP_DSTS_OWNER; /* * Flush the ownwership of the current descriptor */ TULIP_TXDESC_PRESYNC(ri); TULIP_CSR_WRITE(sc, csr_txpoll, 1); if ((sc->tulip_intrmask & TULIP_STS_TXINTR) == 0) { sc->tulip_intrmask |= TULIP_STS_TXINTR; TULIP_CSR_WRITE(sc, csr_intr, sc->tulip_intrmask); } } static int tulip_ifioctl(struct ifnet * ifp, u_long cmd, caddr_t data) { TULIP_PERFSTART(ifioctl) tulip_softc_t * const sc = (tulip_softc_t *)ifp->if_softc; struct ifreq *ifr = (struct ifreq *) data; int error = 0; switch (cmd) { case SIOCSIFFLAGS: { TULIP_LOCK(sc); tulip_init_locked(sc); TULIP_UNLOCK(sc); break; } case SIOCSIFMEDIA: case SIOCGIFMEDIA: { error = ifmedia_ioctl(ifp, ifr, &sc->tulip_ifmedia, cmd); break; } case SIOCADDMULTI: case SIOCDELMULTI: { /* * Update multicast listeners */ TULIP_LOCK(sc); tulip_init_locked(sc); TULIP_UNLOCK(sc); error = 0; break; } -#ifdef SIOCGADDRROM - case SIOCGADDRROM: { - error = copyout(sc->tulip_rombuf, ifr_data_get_ptr(ifr), sizeof(sc->tulip_rombuf)); - break; - } -#endif -#ifdef SIOCGCHIPID - case SIOCGCHIPID: { - ifr->ifr_metric = (int) sc->tulip_chipid; - break; - } -#endif default: { error = ether_ioctl(ifp, cmd, data); break; } } TULIP_PERFEND(ifioctl); return error; } static void tulip_start(struct ifnet * const ifp) { TULIP_PERFSTART(ifstart) tulip_softc_t * const sc = (tulip_softc_t *)ifp->if_softc; TULIP_LOCK(sc); tulip_start_locked(sc); TULIP_UNLOCK(sc); TULIP_PERFEND(ifstart); } static void tulip_start_locked(tulip_softc_t * const sc) { struct mbuf *m; TULIP_LOCK_ASSERT(sc); CTR0(KTR_TULIP, "tulip_start_locked invoked"); if ((sc->tulip_flags & (TULIP_WANTSETUP|TULIP_TXPROBE_ACTIVE)) == TULIP_WANTSETUP) tulip_txput_setup(sc); CTR1(KTR_TULIP, "tulip_start_locked: %d tx packets pending", sc->tulip_ifp->if_snd.ifq_len); while (!IFQ_DRV_IS_EMPTY(&sc->tulip_ifp->if_snd)) { IFQ_DRV_DEQUEUE(&sc->tulip_ifp->if_snd, m); if(m == NULL) break; if ((m = tulip_txput(sc, m)) != NULL) { IFQ_DRV_PREPEND(&sc->tulip_ifp->if_snd, m); break; } } } static void tulip_watchdog(void *arg) { TULIP_PERFSTART(stat) tulip_softc_t *sc = arg; #if defined(TULIP_DEBUG) u_int32_t rxintrs; #endif TULIP_LOCK_ASSERT(sc); callout_reset(&sc->tulip_stat_timer, hz, tulip_watchdog, sc); #if defined(TULIP_DEBUG) rxintrs = sc->tulip_dbg.dbg_rxintrs - sc->tulip_dbg.dbg_last_rxintrs; if (rxintrs > sc->tulip_dbg.dbg_high_rxintrs_hz) sc->tulip_dbg.dbg_high_rxintrs_hz = rxintrs; sc->tulip_dbg.dbg_last_rxintrs = sc->tulip_dbg.dbg_rxintrs; #endif /* TULIP_DEBUG */ /* * These should be rare so do a bulk test up front so we can just skip * them if needed. */ if (sc->tulip_flags & (TULIP_SYSTEMERROR|TULIP_RXBUFSLOW|TULIP_NOMESSAGES)) { /* * If the number of receive buffer is low, try to refill */ if (sc->tulip_flags & TULIP_RXBUFSLOW) tulip_rx_intr(sc); if (sc->tulip_flags & TULIP_SYSTEMERROR) { if_printf(sc->tulip_ifp, "%d system errors: last was %s\n", sc->tulip_system_errors, tulip_system_errors[sc->tulip_last_system_error]); } if (sc->tulip_statusbits) { tulip_print_abnormal_interrupt(sc, sc->tulip_statusbits); sc->tulip_statusbits = 0; } sc->tulip_flags &= ~(TULIP_NOMESSAGES|TULIP_SYSTEMERROR); } if (sc->tulip_txtimer) tulip_tx_intr(sc); if (sc->tulip_txtimer && --sc->tulip_txtimer == 0) { if_printf(sc->tulip_ifp, "transmission timeout\n"); if (TULIP_DO_AUTOSENSE(sc)) { sc->tulip_media = TULIP_MEDIA_UNKNOWN; sc->tulip_probe_state = TULIP_PROBE_INACTIVE; sc->tulip_flags &= ~(TULIP_WANTRXACT|TULIP_LINKUP); } tulip_reset(sc); tulip_init_locked(sc); } TULIP_PERFEND(stat); TULIP_PERFMERGE(sc, perf_intr_cycles); TULIP_PERFMERGE(sc, perf_ifstart_cycles); TULIP_PERFMERGE(sc, perf_ifioctl_cycles); TULIP_PERFMERGE(sc, perf_stat_cycles); TULIP_PERFMERGE(sc, perf_timeout_cycles); TULIP_PERFMERGE(sc, perf_ifstart_one_cycles); TULIP_PERFMERGE(sc, perf_txput_cycles); TULIP_PERFMERGE(sc, perf_txintr_cycles); TULIP_PERFMERGE(sc, perf_rxintr_cycles); TULIP_PERFMERGE(sc, perf_rxget_cycles); TULIP_PERFMERGE(sc, perf_intr); TULIP_PERFMERGE(sc, perf_ifstart); TULIP_PERFMERGE(sc, perf_ifioctl); TULIP_PERFMERGE(sc, perf_stat); TULIP_PERFMERGE(sc, perf_timeout); TULIP_PERFMERGE(sc, perf_ifstart_one); TULIP_PERFMERGE(sc, perf_txput); TULIP_PERFMERGE(sc, perf_txintr); TULIP_PERFMERGE(sc, perf_rxintr); TULIP_PERFMERGE(sc, perf_rxget); } static void tulip_attach(tulip_softc_t * const sc) { struct ifnet *ifp; ifp = sc->tulip_ifp = if_alloc(IFT_ETHER); /* XXX: driver name/unit should be set some other way */ if_initname(ifp, "de", sc->tulip_unit); ifp->if_softc = sc; ifp->if_flags = IFF_BROADCAST|IFF_SIMPLEX|IFF_MULTICAST; ifp->if_ioctl = tulip_ifioctl; ifp->if_start = tulip_start; ifp->if_init = tulip_init; IFQ_SET_MAXLEN(&ifp->if_snd, ifqmaxlen); ifp->if_snd.ifq_drv_maxlen = ifqmaxlen; IFQ_SET_READY(&ifp->if_snd); device_printf(sc->tulip_dev, "%s%s pass %d.%d%s\n", sc->tulip_boardid, tulip_chipdescs[sc->tulip_chipid], (sc->tulip_revinfo & 0xF0) >> 4, sc->tulip_revinfo & 0x0F, (sc->tulip_features & (TULIP_HAVE_ISVSROM|TULIP_HAVE_OKSROM)) == TULIP_HAVE_ISVSROM ? " (invalid EESPROM checksum)" : ""); TULIP_LOCK(sc); (*sc->tulip_boardsw->bd_media_probe)(sc); ifmedia_init(&sc->tulip_ifmedia, 0, tulip_ifmedia_change, tulip_ifmedia_status); tulip_ifmedia_add(sc); tulip_reset(sc); TULIP_UNLOCK(sc); ether_ifattach(sc->tulip_ifp, sc->tulip_enaddr); TULIP_LOCK(sc); sc->tulip_flags &= ~TULIP_DEVICEPROBE; TULIP_UNLOCK(sc); } /* Release memory for a single descriptor ring. */ static void tulip_busdma_freering(tulip_ringinfo_t *ri) { int i; /* Release the DMA maps and tag for data buffers. */ if (ri->ri_data_maps != NULL) { for (i = 0; i < ri->ri_max; i++) { if (ri->ri_data_maps[i] != NULL) { bus_dmamap_destroy(ri->ri_data_tag, ri->ri_data_maps[i]); ri->ri_data_maps[i] = NULL; } } free(ri->ri_data_maps, M_DEVBUF); ri->ri_data_maps = NULL; } if (ri->ri_data_tag != NULL) { bus_dma_tag_destroy(ri->ri_data_tag); ri->ri_data_tag = NULL; } /* Release the DMA memory and tag for the ring descriptors. */ if (ri->ri_dma_addr != 0) { bus_dmamap_unload(ri->ri_ring_tag, ri->ri_ring_map); ri->ri_dma_addr = 0; } if (ri->ri_descs != NULL) { bus_dmamem_free(ri->ri_ring_tag, ri->ri_descs, ri->ri_ring_map); ri->ri_descs = NULL; } if (ri->ri_ring_tag != NULL) { bus_dma_tag_destroy(ri->ri_ring_tag); ri->ri_ring_tag = NULL; } } /* Allocate memory for a single descriptor ring. */ static int tulip_busdma_allocring(device_t dev, tulip_softc_t * const sc, size_t count, bus_size_t align, int nsegs, tulip_ringinfo_t *ri, const char *name) { size_t size; int error, i; /* First, setup a tag. */ ri->ri_max = count; size = count * sizeof(tulip_desc_t); error = bus_dma_tag_create(bus_get_dma_tag(dev), 32, 0, BUS_SPACE_MAXADDR_32BIT, BUS_SPACE_MAXADDR, NULL, NULL, size, 1, size, 0, NULL, NULL, &ri->ri_ring_tag); if (error) { device_printf(dev, "failed to allocate %s descriptor ring dma tag\n", name); return (error); } /* Next, allocate memory for the descriptors. */ error = bus_dmamem_alloc(ri->ri_ring_tag, (void **)&ri->ri_descs, BUS_DMA_NOWAIT | BUS_DMA_ZERO, &ri->ri_ring_map); if (error) { device_printf(dev, "failed to allocate memory for %s descriptor ring\n", name); return (error); } /* Map the descriptors. */ error = bus_dmamap_load(ri->ri_ring_tag, ri->ri_ring_map, ri->ri_descs, size, tulip_dma_map_addr, &ri->ri_dma_addr, BUS_DMA_NOWAIT); if (error) { device_printf(dev, "failed to get dma address for %s descriptor ring\n", name); return (error); } /* Allocate a tag for the data buffers. */ error = bus_dma_tag_create(bus_get_dma_tag(dev), align, 0, BUS_SPACE_MAXADDR_32BIT, BUS_SPACE_MAXADDR, NULL, NULL, MCLBYTES * nsegs, nsegs, MCLBYTES, 0, NULL, NULL, &ri->ri_data_tag); if (error) { device_printf(dev, "failed to allocate %s buffer dma tag\n", name); return (error); } /* Allocate maps for the data buffers. */ ri->ri_data_maps = malloc(sizeof(bus_dmamap_t) * count, M_DEVBUF, M_WAITOK | M_ZERO); for (i = 0; i < count; i++) { error = bus_dmamap_create(ri->ri_data_tag, 0, &ri->ri_data_maps[i]); if (error) { device_printf(dev, "failed to create map for %s buffer %d\n", name, i); return (error); } } return (0); } /* Release busdma maps, tags, and memory. */ static void tulip_busdma_cleanup(tulip_softc_t * const sc) { /* Release resources for the setup descriptor. */ if (sc->tulip_setup_dma_addr != 0) { bus_dmamap_unload(sc->tulip_setup_tag, sc->tulip_setup_map); sc->tulip_setup_dma_addr = 0; } if (sc->tulip_setupbuf != NULL) { bus_dmamem_free(sc->tulip_setup_tag, sc->tulip_setupbuf, sc->tulip_setup_map); sc->tulip_setupbuf = NULL; } if (sc->tulip_setup_tag != NULL) { bus_dma_tag_destroy(sc->tulip_setup_tag); sc->tulip_setup_tag = NULL; } /* Release the transmit ring. */ tulip_busdma_freering(&sc->tulip_txinfo); /* Release the receive ring. */ tulip_busdma_freering(&sc->tulip_rxinfo); } static int tulip_busdma_init(device_t dev, tulip_softc_t * const sc) { int error; /* * Allocate space and dmamap for transmit ring. */ error = tulip_busdma_allocring(dev, sc, TULIP_TXDESCS, 1, TULIP_MAX_TXSEG, &sc->tulip_txinfo, "transmit"); if (error) return (error); /* * Allocate space and dmamap for receive ring. We tell bus_dma that * we can map MCLBYTES so that it will accept a full MCLBYTES cluster, * but we will only map the first TULIP_RX_BUFLEN bytes. This is not * a waste in practice though as an ethernet frame can easily fit * in TULIP_RX_BUFLEN bytes. */ error = tulip_busdma_allocring(dev, sc, TULIP_RXDESCS, 4, 1, &sc->tulip_rxinfo, "receive"); if (error) return (error); /* * Allocate a DMA tag, memory, and map for setup descriptor */ error = bus_dma_tag_create(bus_get_dma_tag(dev), 32, 0, BUS_SPACE_MAXADDR_32BIT, BUS_SPACE_MAXADDR, NULL, NULL, sizeof(sc->tulip_setupdata), 1, sizeof(sc->tulip_setupdata), 0, NULL, NULL, &sc->tulip_setup_tag); if (error) { device_printf(dev, "failed to allocate setup descriptor dma tag\n"); return (error); } error = bus_dmamem_alloc(sc->tulip_setup_tag, (void **)&sc->tulip_setupbuf, BUS_DMA_NOWAIT | BUS_DMA_ZERO, &sc->tulip_setup_map); if (error) { device_printf(dev, "failed to allocate memory for setup descriptor\n"); return (error); } error = bus_dmamap_load(sc->tulip_setup_tag, sc->tulip_setup_map, sc->tulip_setupbuf, sizeof(sc->tulip_setupdata), tulip_dma_map_addr, &sc->tulip_setup_dma_addr, BUS_DMA_NOWAIT); if (error) { device_printf(dev, "failed to get dma address for setup descriptor\n"); return (error); } return error; } static void tulip_initcsrs(tulip_softc_t * const sc, tulip_csrptr_t csr_base, size_t csr_size) { sc->tulip_csrs.csr_busmode = csr_base + 0 * csr_size; sc->tulip_csrs.csr_txpoll = csr_base + 1 * csr_size; sc->tulip_csrs.csr_rxpoll = csr_base + 2 * csr_size; sc->tulip_csrs.csr_rxlist = csr_base + 3 * csr_size; sc->tulip_csrs.csr_txlist = csr_base + 4 * csr_size; sc->tulip_csrs.csr_status = csr_base + 5 * csr_size; sc->tulip_csrs.csr_command = csr_base + 6 * csr_size; sc->tulip_csrs.csr_intr = csr_base + 7 * csr_size; sc->tulip_csrs.csr_missed_frames = csr_base + 8 * csr_size; sc->tulip_csrs.csr_9 = csr_base + 9 * csr_size; sc->tulip_csrs.csr_10 = csr_base + 10 * csr_size; sc->tulip_csrs.csr_11 = csr_base + 11 * csr_size; sc->tulip_csrs.csr_12 = csr_base + 12 * csr_size; sc->tulip_csrs.csr_13 = csr_base + 13 * csr_size; sc->tulip_csrs.csr_14 = csr_base + 14 * csr_size; sc->tulip_csrs.csr_15 = csr_base + 15 * csr_size; } static int tulip_initring( device_t dev, tulip_softc_t * const sc, tulip_ringinfo_t * const ri, int ndescs) { int i; ri->ri_descinfo = malloc(sizeof(tulip_descinfo_t) * ndescs, M_DEVBUF, M_WAITOK | M_ZERO); for (i = 0; i < ndescs; i++) { ri->ri_descinfo[i].di_desc = &ri->ri_descs[i]; ri->ri_descinfo[i].di_map = &ri->ri_data_maps[i]; } ri->ri_first = ri->ri_descinfo; ri->ri_max = ndescs; ri->ri_last = ri->ri_first + ri->ri_max; bzero(ri->ri_descs, sizeof(tulip_desc_t) * ri->ri_max); ri->ri_last[-1].di_desc->d_flag = TULIP_DFLAG_ENDRING; return (0); } /* * This is the PCI configuration support. */ #define PCI_CBIO PCIR_BAR(0) /* Configuration Base IO Address */ #define PCI_CBMA PCIR_BAR(1) /* Configuration Base Memory Address */ #define PCI_CFDA 0x40 /* Configuration Driver Area */ static int tulip_pci_probe(device_t dev) { const char *name = NULL; if (pci_get_vendor(dev) != DEC_VENDORID) return ENXIO; /* * Some LanMedia WAN cards use the Tulip chip, but they have * their own driver, and we should not recognize them */ if (pci_get_subvendor(dev) == 0x1376) return ENXIO; switch (pci_get_device(dev)) { case CHIPID_21040: name = "Digital 21040 Ethernet"; break; case CHIPID_21041: name = "Digital 21041 Ethernet"; break; case CHIPID_21140: if (pci_get_revid(dev) >= 0x20) name = "Digital 21140A Fast Ethernet"; else name = "Digital 21140 Fast Ethernet"; break; case CHIPID_21142: if (pci_get_revid(dev) >= 0x20) name = "Digital 21143 Fast Ethernet"; else name = "Digital 21142 Fast Ethernet"; break; } if (name) { device_set_desc(dev, name); return BUS_PROBE_LOW_PRIORITY; } return ENXIO; } static int tulip_shutdown(device_t dev) { tulip_softc_t * const sc = device_get_softc(dev); TULIP_CSR_WRITE(sc, csr_busmode, TULIP_BUSMODE_SWRESET); DELAY(10); /* Wait 10 microseconds (actually 50 PCI cycles but at 33MHz that comes to two microseconds but wait a bit longer anyways) */ return 0; } static int tulip_pci_attach(device_t dev) { tulip_softc_t *sc; int retval, idx; u_int32_t revinfo, cfdainfo; unsigned csroffset = TULIP_PCI_CSROFFSET; unsigned csrsize = TULIP_PCI_CSRSIZE; tulip_csrptr_t csr_base; tulip_chipid_t chipid = TULIP_CHIPID_UNKNOWN; struct resource *res; int rid, unit; unit = device_get_unit(dev); if (unit >= TULIP_MAX_DEVICES) { device_printf(dev, "not configured; limit of %d reached or exceeded\n", TULIP_MAX_DEVICES); return ENXIO; } revinfo = pci_get_revid(dev); cfdainfo = pci_read_config(dev, PCI_CFDA, 4); /* turn busmaster on in case BIOS doesn't set it */ pci_enable_busmaster(dev); if (pci_get_vendor(dev) == DEC_VENDORID) { if (pci_get_device(dev) == CHIPID_21040) chipid = TULIP_21040; else if (pci_get_device(dev) == CHIPID_21041) chipid = TULIP_21041; else if (pci_get_device(dev) == CHIPID_21140) chipid = (revinfo >= 0x20) ? TULIP_21140A : TULIP_21140; else if (pci_get_device(dev) == CHIPID_21142) chipid = (revinfo >= 0x20) ? TULIP_21143 : TULIP_21142; } if (chipid == TULIP_CHIPID_UNKNOWN) return ENXIO; if (chipid == TULIP_21040 && revinfo < 0x20) { device_printf(dev, "not configured; 21040 pass 2.0 required (%d.%d found)\n", revinfo >> 4, revinfo & 0x0f); return ENXIO; } else if (chipid == TULIP_21140 && revinfo < 0x11) { device_printf(dev, "not configured; 21140 pass 1.1 required (%d.%d found)\n", revinfo >> 4, revinfo & 0x0f); return ENXIO; } sc = device_get_softc(dev); sc->tulip_dev = dev; sc->tulip_pci_busno = pci_get_bus(dev); sc->tulip_pci_devno = pci_get_slot(dev); sc->tulip_chipid = chipid; sc->tulip_flags |= TULIP_DEVICEPROBE; if (chipid == TULIP_21140 || chipid == TULIP_21140A) sc->tulip_features |= TULIP_HAVE_GPR|TULIP_HAVE_STOREFWD; if (chipid == TULIP_21140A && revinfo <= 0x22) sc->tulip_features |= TULIP_HAVE_RXBADOVRFLW; if (chipid == TULIP_21140) sc->tulip_features |= TULIP_HAVE_BROKEN_HASH; if (chipid != TULIP_21040 && chipid != TULIP_21140) sc->tulip_features |= TULIP_HAVE_POWERMGMT; if (chipid == TULIP_21041 || chipid == TULIP_21142 || chipid == TULIP_21143) { sc->tulip_features |= TULIP_HAVE_DUALSENSE; if (chipid != TULIP_21041 || revinfo >= 0x20) sc->tulip_features |= TULIP_HAVE_SIANWAY; if (chipid != TULIP_21041) sc->tulip_features |= TULIP_HAVE_SIAGP|TULIP_HAVE_RXBADOVRFLW|TULIP_HAVE_STOREFWD; if (chipid != TULIP_21041 && revinfo >= 0x20) sc->tulip_features |= TULIP_HAVE_SIA100; } if (sc->tulip_features & TULIP_HAVE_POWERMGMT && (cfdainfo & (TULIP_CFDA_SLEEP|TULIP_CFDA_SNOOZE))) { cfdainfo &= ~(TULIP_CFDA_SLEEP|TULIP_CFDA_SNOOZE); pci_write_config(dev, PCI_CFDA, cfdainfo, 4); DELAY(11*1000); } sc->tulip_unit = unit; sc->tulip_revinfo = revinfo; #if defined(TULIP_IOMAPPED) rid = PCI_CBIO; res = bus_alloc_resource_any(dev, SYS_RES_IOPORT, &rid, RF_ACTIVE); #else rid = PCI_CBMA; res = bus_alloc_resource_any(dev, SYS_RES_MEMORY, &rid, RF_ACTIVE); #endif if (!res) return ENXIO; sc->tulip_csrs_bst = rman_get_bustag(res); sc->tulip_csrs_bsh = rman_get_bushandle(res); csr_base = 0; mtx_init(TULIP_MUTEX(sc), MTX_NETWORK_LOCK, device_get_nameunit(dev), MTX_DEF); callout_init_mtx(&sc->tulip_callout, TULIP_MUTEX(sc), 0); callout_init_mtx(&sc->tulip_stat_timer, TULIP_MUTEX(sc), 0); tulips[unit] = sc; tulip_initcsrs(sc, csr_base + csroffset, csrsize); if ((retval = tulip_busdma_init(dev, sc)) != 0) { device_printf(dev, "error initing bus_dma: %d\n", retval); tulip_busdma_cleanup(sc); mtx_destroy(TULIP_MUTEX(sc)); return ENXIO; } retval = tulip_initring(dev, sc, &sc->tulip_rxinfo, TULIP_RXDESCS); if (retval == 0) retval = tulip_initring(dev, sc, &sc->tulip_txinfo, TULIP_TXDESCS); if (retval) { tulip_busdma_cleanup(sc); mtx_destroy(TULIP_MUTEX(sc)); return retval; } /* * Make sure there won't be any interrupts or such... */ TULIP_CSR_WRITE(sc, csr_busmode, TULIP_BUSMODE_SWRESET); DELAY(100); /* Wait 10 microseconds (actually 50 PCI cycles but at 33MHz that comes to two microseconds but wait a bit longer anyways) */ TULIP_LOCK(sc); retval = tulip_read_macaddr(sc); TULIP_UNLOCK(sc); if (retval < 0) { device_printf(dev, "can't read ENET ROM (why=%d) (", retval); for (idx = 0; idx < 32; idx++) printf("%02x", sc->tulip_rombuf[idx]); printf("\n"); device_printf(dev, "%s%s pass %d.%d\n", sc->tulip_boardid, tulip_chipdescs[sc->tulip_chipid], (sc->tulip_revinfo & 0xF0) >> 4, sc->tulip_revinfo & 0x0F); device_printf(dev, "address unknown\n"); } else { void (*intr_rtn)(void *) = tulip_intr_normal; if (sc->tulip_features & TULIP_HAVE_SHAREDINTR) intr_rtn = tulip_intr_shared; tulip_attach(sc); /* Setup interrupt last. */ if ((sc->tulip_features & TULIP_HAVE_SLAVEDINTR) == 0) { void *ih; rid = 0; res = bus_alloc_resource_any(dev, SYS_RES_IRQ, &rid, RF_SHAREABLE | RF_ACTIVE); if (res == NULL || bus_setup_intr(dev, res, INTR_TYPE_NET | INTR_MPSAFE, NULL, intr_rtn, sc, &ih)) { device_printf(dev, "couldn't map interrupt\n"); tulip_busdma_cleanup(sc); ether_ifdetach(sc->tulip_ifp); if_free(sc->tulip_ifp); mtx_destroy(TULIP_MUTEX(sc)); return ENXIO; } } } return 0; } static device_method_t tulip_pci_methods[] = { /* Device interface */ DEVMETHOD(device_probe, tulip_pci_probe), DEVMETHOD(device_attach, tulip_pci_attach), DEVMETHOD(device_shutdown, tulip_shutdown), { 0, 0 } }; static driver_t tulip_pci_driver = { "de", tulip_pci_methods, sizeof(tulip_softc_t), }; static devclass_t tulip_devclass; DRIVER_MODULE(de, pci, tulip_pci_driver, tulip_devclass, 0, 0); #ifdef DDB void tulip_dumpring(int unit, int ring); void tulip_dumpdesc(int unit, int ring, int desc); void tulip_status(int unit); void tulip_dumpring(int unit, int ring) { tulip_softc_t *sc; tulip_ringinfo_t *ri; tulip_descinfo_t *di; if (unit < 0 || unit >= TULIP_MAX_DEVICES) { db_printf("invalid unit %d\n", unit); return; } sc = tulips[unit]; if (sc == NULL) { db_printf("unit %d not present\n", unit); return; } switch (ring) { case 0: db_printf("receive ring:\n"); ri = &sc->tulip_rxinfo; break; case 1: db_printf("transmit ring:\n"); ri = &sc->tulip_txinfo; break; default: db_printf("invalid ring %d\n", ring); return; } db_printf(" nextin: %td, nextout: %td, max: %d, free: %d\n", ri->ri_nextin - ri->ri_first, ri->ri_nextout - ri->ri_first, ri->ri_max, ri->ri_free); for (di = ri->ri_first; di != ri->ri_last; di++) { if (di->di_mbuf != NULL) db_printf(" descriptor %td: mbuf %p\n", di - ri->ri_first, di->di_mbuf); else if (di->di_desc->d_flag & TULIP_DFLAG_TxSETUPPKT) db_printf(" descriptor %td: setup packet\n", di - ri->ri_first); } } void tulip_dumpdesc(int unit, int ring, int desc) { tulip_softc_t *sc; tulip_ringinfo_t *ri; tulip_descinfo_t *di; char *s; if (unit < 0 || unit >= TULIP_MAX_DEVICES) { db_printf("invalid unit %d\n", unit); return; } sc = tulips[unit]; if (sc == NULL) { db_printf("unit %d not present\n", unit); return; } switch (ring) { case 0: s = "receive"; ri = &sc->tulip_rxinfo; break; case 1: s = "transmit"; ri = &sc->tulip_txinfo; break; default: db_printf("invalid ring %d\n", ring); return; } if (desc < 0 || desc >= ri->ri_max) { db_printf("invalid descriptor %d\n", desc); return; } db_printf("%s descriptor %d:\n", s, desc); di = &ri->ri_first[desc]; db_printf(" mbuf: %p\n", di->di_mbuf); db_printf(" status: %08x flag: %03x\n", di->di_desc->d_status, di->di_desc->d_flag); db_printf(" addr1: %08x len1: %03x\n", di->di_desc->d_addr1, di->di_desc->d_length1); db_printf(" addr2: %08x len2: %03x\n", di->di_desc->d_addr2, di->di_desc->d_length2); } #endif Index: stable/11/sys/dev/de/if_devar.h =================================================================== --- stable/11/sys/dev/de/if_devar.h (revision 332289) +++ stable/11/sys/dev/de/if_devar.h (revision 332290) @@ -1,935 +1,930 @@ /* $NetBSD: if_devar.h,v 1.32 1999/04/01 14:55:25 tsubai Exp $ */ /* $FreeBSD$ */ /*- * Copyright (c) 1994-1997 Matt Thomas (matt@3am-software.com) * All rights reserved. * * Redistribution and use in source and binary forms, with or without * modification, are permitted provided that the following conditions * are met: * 1. Redistributions of source code must retain the above copyright * notice, this list of conditions and the following disclaimer. * 2. The name of the author may not be used to endorse or promote products * derived from this software without specific prior written permission * * THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR * IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES * OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. * IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT, * INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT * NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, * DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY * THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT * (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF * THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. * * Id: if_devar.h,v 1.28 1997/07/03 16:55:07 thomas Exp */ #ifndef DEV_DE_IF_DEVAR_H #define DEV_DE_IF_DEVAR_H typedef bus_addr_t tulip_csrptr_t; #define TULIP_PCI_CSRSIZE 8 #define TULIP_PCI_CSROFFSET 0 #define TULIP_CSR_READ(sc, csr) \ bus_space_read_4((sc)->tulip_csrs_bst, \ (sc)->tulip_csrs_bsh, \ (sc)->tulip_csrs.csr) #define TULIP_CSR_WRITE(sc, csr, val) \ bus_space_write_4((sc)->tulip_csrs_bst, \ (sc)->tulip_csrs_bsh, \ (sc)->tulip_csrs.csr, val) /* * This structure contains "pointers" for the registers on * the various 21x4x chips. CSR0 through CSR8 are common * to all chips. After that, it gets messy... */ typedef struct { tulip_csrptr_t csr_busmode; /* CSR0 */ tulip_csrptr_t csr_txpoll; /* CSR1 */ tulip_csrptr_t csr_rxpoll; /* CSR2 */ tulip_csrptr_t csr_rxlist; /* CSR3 */ tulip_csrptr_t csr_txlist; /* CSR4 */ tulip_csrptr_t csr_status; /* CSR5 */ tulip_csrptr_t csr_command; /* CSR6 */ tulip_csrptr_t csr_intr; /* CSR7 */ tulip_csrptr_t csr_missed_frames; /* CSR8 */ tulip_csrptr_t csr_9; /* CSR9 */ tulip_csrptr_t csr_10; /* CSR10 */ tulip_csrptr_t csr_11; /* CSR11 */ tulip_csrptr_t csr_12; /* CSR12 */ tulip_csrptr_t csr_13; /* CSR13 */ tulip_csrptr_t csr_14; /* CSR14 */ tulip_csrptr_t csr_15; /* CSR15 */ } tulip_regfile_t; #define csr_enetrom csr_9 /* 21040 */ #define csr_reserved csr_10 /* 21040 */ #define csr_full_duplex csr_11 /* 21040 */ #define csr_bootrom csr_10 /* 21041/21140A/?? */ #define csr_gp csr_12 /* 21140* */ #define csr_watchdog csr_15 /* 21140* */ #define csr_gp_timer csr_11 /* 21041/21140* */ #define csr_srom_mii csr_9 /* 21041/21140* */ #define csr_sia_status csr_12 /* 2104x */ #define csr_sia_connectivity csr_13 /* 2104x */ #define csr_sia_tx_rx csr_14 /* 2104x */ #define csr_sia_general csr_15 /* 2104x */ /* * While 21x4x allows chaining of its descriptors, this driver * doesn't take advantage of it. We keep the descriptors in a * traditional FIFO ring. */ typedef struct { tulip_desc_t *di_desc; struct mbuf *di_mbuf; bus_dmamap_t *di_map; } tulip_descinfo_t; typedef struct { tulip_descinfo_t *ri_first; /* first entry in ring */ tulip_descinfo_t *ri_last; /* one after last entry */ tulip_descinfo_t *ri_nextin; /* next to processed by host */ tulip_descinfo_t *ri_nextout; /* next to processed by adapter */ int ri_max; int ri_free; tulip_desc_t *ri_descs; tulip_descinfo_t *ri_descinfo; bus_dma_tag_t ri_ring_tag; bus_dmamap_t ri_ring_map; bus_addr_t ri_dma_addr; bus_dma_tag_t ri_data_tag; bus_dmamap_t *ri_data_maps; } tulip_ringinfo_t; /* * The 21040 has a stupid restriction in that the receive * buffers must be longword aligned. But since Ethernet * headers are not a multiple of longwords in size this forces * the data to non-longword aligned. Since IP requires the * data to be longword aligned, we need to copy it after it has * been DMA'ed in our memory. * * Since we have to copy it anyways, we might as well as allocate * dedicated receive space for the input. This allows to use a * small receive buffer size and more ring entries to be able to * better keep with a flood of tiny Ethernet packets. * * The receive space MUST ALWAYS be a multiple of the page size. * And the number of receive descriptors multiplied by the size * of the receive buffers must equal the receive space. This * is so that we can manipulate the page tables so that even if a * packet wraps around the end of the receive space, we can * treat it as virtually contiguous. * * The above used to be true (the stupid restriction is still true) * but we gone to directly DMA'ing into MBUFs (unless it's on an * architecture which can't handle unaligned accesses) because with * 100Mb/s cards the copying is just too much of a hit. */ #define TULIP_TXTIMER 4 #define TULIP_RXDESCS 48 #define TULIP_TXDESCS 128 #define TULIP_RXQ_TARGET 32 #if TULIP_RXQ_TARGET >= TULIP_RXDESCS #error TULIP_RXQ_TARGET must be less than TULIP_RXDESCS #endif #define TULIP_RX_BUFLEN ((MCLBYTES < 2048 ? MCLBYTES : 2048) - 16) /* * Forward reference to make C happy. */ typedef struct tulip_softc tulip_softc_t; /* * Enumeration of the various controllers supported. */ typedef enum { TULIP_21040, TULIP_21041, TULIP_21140, TULIP_21140A, TULIP_21142, TULIP_21143, TULIP_CHIPID_UNKNOWN } tulip_chipid_t; /* * Various physical media types supported. * BNCAUI is BNC or AUI since on the 21040 you can't really tell * which is in use. */ typedef enum { TULIP_MEDIA_UNKNOWN, TULIP_MEDIA_10BASET, TULIP_MEDIA_10BASET_FD, TULIP_MEDIA_BNC, TULIP_MEDIA_AUI, TULIP_MEDIA_EXTSIA, TULIP_MEDIA_AUIBNC, TULIP_MEDIA_100BASETX, TULIP_MEDIA_100BASETX_FD, TULIP_MEDIA_100BASET4, TULIP_MEDIA_100BASEFX, TULIP_MEDIA_100BASEFX_FD, TULIP_MEDIA_MAX } tulip_media_t; #define TULIP_BIT(b) (1L << ((int)(b))) #define TULIP_FDBIT(m) (1L << ((int)TULIP_MEDIA_ ## m ## _FD)) #define TULIP_MBIT(m) (1L << ((int)TULIP_MEDIA_ ## m )) #define TULIP_IS_MEDIA_FD(m) (TULIP_BIT(m) & \ (TULIP_FDBIT(10BASET) | \ TULIP_FDBIT(100BASETX) | \ TULIP_FDBIT(100BASEFX))) #define TULIP_CAN_MEDIA_FD(m) (TULIP_BIT(m) & \ (TULIP_MBIT(10BASET) | \ TULIP_MBIT(100BASETX) | \ TULIP_MBIT(100BASEFX))) #define TULIP_FD_MEDIA_OF(m) ((tulip_media_t)((m) + 1)) #define TULIP_HD_MEDIA_OF(m) ((tulip_media_t)((m) - 1)) #define TULIP_IS_MEDIA_100MB(m) ((m) >= TULIP_MEDIA_100BASETX) #define TULIP_IS_MEDIA_TP(m) ((TULIP_BIT(m) & \ (TULIP_MBIT(BNC) | \ TULIP_MBIT(AUI) | \ TULIP_MBIT(AUIBNC) | \ TULIP_MBIT(EXTSIA))) == 0) #define TULIP_SROM_ATTR_MII 0x0100 #define TULIP_SROM_ATTR_NWAY 0x0200 #define TULIP_SROM_ATTR_AUTOSENSE 0x0400 #define TULIP_SROM_ATTR_POWERUP 0x0800 #define TULIP_SROM_ATTR_NOLINKPASS 0x1000 typedef struct { enum { TULIP_MEDIAINFO_NONE, TULIP_MEDIAINFO_SIA, TULIP_MEDIAINFO_GPR, TULIP_MEDIAINFO_MII, TULIP_MEDIAINFO_RESET, TULIP_MEDIAINFO_SYM } mi_type; union { struct { u_int16_t sia_connectivity; u_int16_t sia_tx_rx; u_int16_t sia_general; u_int32_t sia_gp_control; /* 21142/21143 */ u_int32_t sia_gp_data; /* 21142/21143 */ } un_sia; struct { u_int32_t gpr_cmdmode; u_int32_t gpr_gpcontrol; /* 21142/21143 */ u_int32_t gpr_gpdata; u_int8_t gpr_actmask; u_int8_t gpr_actdata; u_int gpr_default:1; } un_gpr; struct { u_int32_t mii_mediamask; u_int16_t mii_capabilities; u_int16_t mii_advertisement; u_int16_t mii_full_duplex; u_int16_t mii_tx_threshold; u_int16_t mii_interrupt; /* 21142/21143 */ u_int8_t mii_phyaddr; u_int8_t mii_gpr_length; u_int8_t mii_gpr_offset; u_int8_t mii_reset_length; u_int8_t mii_reset_offset; u_int32_t mii_phyid; } un_mii; } mi_un; } tulip_media_info_t; #define mi_sia_connectivity mi_un.un_sia.sia_connectivity #define mi_sia_tx_rx mi_un.un_sia.sia_tx_rx #define mi_sia_general mi_un.un_sia.sia_general #define mi_sia_gp_control mi_un.un_sia.sia_gp_control #define mi_sia_gp_data mi_un.un_sia.sia_gp_data #define mi_gpcontrol mi_un.un_gpr.gpr_gpcontrol #define mi_gpdata mi_un.un_gpr.gpr_gpdata #define mi_actmask mi_un.un_gpr.gpr_actmask #define mi_actdata mi_un.un_gpr.gpr_actdata #define mi_default mi_un.un_gpr.gpr_default #define mi_cmdmode mi_un.un_gpr.gpr_cmdmode #define mi_phyaddr mi_un.un_mii.mii_phyaddr #define mi_gpr_length mi_un.un_mii.mii_gpr_length #define mi_gpr_offset mi_un.un_mii.mii_gpr_offset #define mi_reset_length mi_un.un_mii.mii_reset_length #define mi_reset_offset mi_un.un_mii.mii_reset_offset #define mi_capabilities mi_un.un_mii.mii_capabilities #define mi_advertisement mi_un.un_mii.mii_advertisement #define mi_full_duplex mi_un.un_mii.mii_full_duplex #define mi_tx_threshold mi_un.un_mii.mii_tx_threshold #define mi_mediamask mi_un.un_mii.mii_mediamask #define mi_mii_interrupt mi_un.un_mii.mii_interrupt #define mi_phyid mi_un.un_mii.mii_phyid #define TULIP_MEDIAINFO_SIA_INIT(sc, mi, chipid, media) do { \ (mi)->mi_type = TULIP_MEDIAINFO_SIA; \ sc->tulip_mediums[TULIP_MEDIA_ ## media] = (mi); \ (mi)->mi_sia_connectivity = TULIP_ ## chipid ## _SIACONN_ ## media; \ (mi)->mi_sia_tx_rx = TULIP_ ## chipid ## _SIATXRX_ ## media; \ (mi)->mi_sia_general = TULIP_ ## chipid ## _SIAGEN_ ## media; \ } while (0) #define TULIP_MEDIAINFO_ADD_CAPABILITY(sc, mi, media) do { \ if ((sc)->tulip_mediums[TULIP_MEDIA_ ## media] == NULL \ && ((mi)->mi_capabilities & PHYSTS_ ## media)) { \ (sc)->tulip_mediums[TULIP_MEDIA_ ## media] = (mi); \ (mi)->mi_mediamask |= TULIP_BIT(TULIP_MEDIA_ ## media); \ } \ } while (0) #define TULIP_MII_NOPHY 32 /* * Some boards need to treated specially. The following enumeration * identifies the cards with quirks (or those we just want to single * out for special merit or scorn). */ typedef enum { TULIP_21040_GENERIC, /* Generic 21040 (works with most any board) */ TULIP_21140_ISV, /* Digital Semicondutor 21140 ISV SROM Format */ TULIP_21142_ISV, /* Digital Semicondutor 21142 ISV SROM Format */ TULIP_21143_ISV, /* Digital Semicondutor 21143 ISV SROM Format */ TULIP_21140_DEC_EB, /* Digital Semicondutor 21140 Eval. Board */ TULIP_21140_MII, /* 21140[A] with MII */ TULIP_21140_DEC_DE500, /* Digital DE500-?? 10/100 */ TULIP_21140_SMC_9332, /* SMC 9332 */ TULIP_21140_COGENT_EM100, /* Cogent EM100 100 only */ TULIP_21140_ZNYX_ZX34X, /* ZNYX ZX342 10/100 */ TULIP_21140_ASANTE, /* AsanteFast 10/100 */ TULIP_21140_EN1207, /* Accton EN2107 10/100 BNC */ TULIP_21041_GENERIC /* Generic 21041 card */ } tulip_board_t; typedef enum { TULIP_MEDIAPOLL_TIMER, /* 100ms timer fired */ TULIP_MEDIAPOLL_FASTTIMER, /* <100ms timer fired */ TULIP_MEDIAPOLL_LINKFAIL, /* called from interrupt routine */ TULIP_MEDIAPOLL_LINKPASS, /* called from interrupt routine */ TULIP_MEDIAPOLL_START, /* start a media probe (from reset) */ TULIP_MEDIAPOLL_TXPROBE_OK, /* txprobe succeeded */ TULIP_MEDIAPOLL_TXPROBE_FAILED, /* txprobe failed */ TULIP_MEDIAPOLL_MAX } tulip_mediapoll_event_t; typedef enum { TULIP_LINK_DOWN, /* Link is down */ TULIP_LINK_UP, /* link is ok */ TULIP_LINK_UNKNOWN /* we can't tell either way */ } tulip_link_status_t; /* * This data structure is used to abstract out the quirks. * media_probe = tries to determine the media type. * media_select = enables the current media (or autosenses) * media_poll = autosenses media * media_preset = 21140, etal requires bit to set before the * the software reset; hence pre-set. Should be * pre-reset but that's ugly. */ typedef struct { tulip_board_t bd_type; void (*bd_media_probe)(tulip_softc_t * const sc); void (*bd_media_select)(tulip_softc_t * const sc); void (*bd_media_poll)(tulip_softc_t * const sc, tulip_mediapoll_event_t event); void (*bd_media_preset) (tulip_softc_t * const sc); } tulip_boardsw_t; /* * The next few declarations are for MII/PHY based boards. * * The first enumeration identifies a superset of various datums * that can be obtained from various PHY chips. Not all PHYs will * support all datums. * The modedata structure indicates what register contains * a datum, what mask is applied the register contents, and what the * result should be. * The attr structure records information about a supported PHY. * The phy structure records information about a PHY instance. */ typedef enum { PHY_MODE_10T, PHY_MODE_100TX, PHY_MODE_100T4, PHY_MODE_FULLDUPLEX, PHY_MODE_MAX } tulip_phy_mode_t; typedef struct { u_int16_t pm_regno; u_int16_t pm_mask; u_int16_t pm_value; } tulip_phy_modedata_t; typedef struct { u_int32_t attr_id; u_int16_t attr_flags; tulip_phy_modedata_t attr_modes[PHY_MODE_MAX]; #ifdef TULIP_DEBUG const char *attr_name; #endif } tulip_phy_attr_t; /* Definitions for tulip_phy_attr_t.attr_flags */ #define PHY_NEED_HARD_RESET 0x0001 #define PHY_DUAL_CYCLE_TA 0x0002 /* * Various probe states used when trying to autosense the media. */ typedef enum { TULIP_PROBE_INACTIVE, TULIP_PROBE_PHYRESET, TULIP_PROBE_PHYAUTONEG, TULIP_PROBE_GPRTEST, TULIP_PROBE_MEDIATEST, TULIP_PROBE_FAILED } tulip_probe_state_t; typedef struct { /* * Transmit Statistics */ u_int32_t dot3StatsSingleCollisionFrames; u_int32_t dot3StatsMultipleCollisionFrames; u_int32_t dot3StatsSQETestErrors; u_int32_t dot3StatsDeferredTransmissions; u_int32_t dot3StatsLateCollisions; u_int32_t dot3StatsExcessiveCollisions; u_int32_t dot3StatsCarrierSenseErrors; u_int32_t dot3StatsInternalMacTransmitErrors; /* not in rfc1650! */ u_int32_t dot3StatsInternalTransmitUnderflows; /* not in rfc1650! */ u_int32_t dot3StatsInternalTransmitBabbles; /* * Receive Statistics */ u_int32_t dot3StatsMissedFrames; /* not in rfc1650! */ u_int32_t dot3StatsAlignmentErrors; u_int32_t dot3StatsFCSErrors; u_int32_t dot3StatsFrameTooLongs; u_int32_t dot3StatsInternalMacReceiveErrors; } tulip_dot3_stats_t; /* * Probe information. */ struct tulip_probe_info { u_int8_t probe_count; /* count of probe operations */ int32_t probe_timeout; /* time (ms) of probe timeout */ tulip_probe_state_t probe_state; /* current media probe state */ tulip_media_t probe_media; /* current media being probed */ u_int32_t probe_mediamask; /* medias checked */ u_int32_t probe_passes; /* times autosense failed */ u_int32_t probe_txprobes; /* txprobes attempted */ }; /* * Debugging/Statistical information. */ struct tulip_dbg_info { tulip_media_t dbg_last_media; u_int32_t dbg_intrs; u_int32_t dbg_media_probes; u_int32_t dbg_txprobe_nocarr; u_int32_t dbg_txprobe_exccoll; u_int32_t dbg_link_downed; u_int32_t dbg_link_suspected; u_int32_t dbg_link_intrs; u_int32_t dbg_link_pollintrs; u_int32_t dbg_link_failures; u_int32_t dbg_nway_starts; u_int32_t dbg_nway_failures; u_int16_t dbg_phyregs[32][4]; u_int32_t dbg_rxlowbufs; u_int32_t dbg_rxintrs; u_int32_t dbg_last_rxintrs; u_int32_t dbg_high_rxintrs_hz; u_int32_t dbg_no_txmaps; u_int32_t dbg_txput_finishes[8]; u_int32_t dbg_txprobes_ok[TULIP_MEDIA_MAX]; u_int32_t dbg_txprobes_failed[TULIP_MEDIA_MAX]; u_int32_t dbg_events[TULIP_MEDIAPOLL_MAX]; u_int32_t dbg_rxpktsperintr[TULIP_RXDESCS]; }; /* * Performance statistics. */ struct tulip_perfstat { u_quad_t perf_intr_cycles; u_quad_t perf_ifstart_cycles; u_quad_t perf_ifstart_one_cycles; u_quad_t perf_ifioctl_cycles; u_quad_t perf_stat_cycles; u_quad_t perf_timeout_cycles; u_quad_t perf_txput_cycles; u_quad_t perf_txintr_cycles; u_quad_t perf_rxintr_cycles; u_quad_t perf_rxget_cycles; unsigned int perf_intr; unsigned int perf_ifstart; unsigned int perf_ifstart_one; unsigned int perf_ifioctl; unsigned int perf_stat; unsigned int perf_timeout; unsigned int perf_txput; unsigned int perf_txintr; unsigned int perf_rxintr; unsigned int perf_rxget; }; #define TULIP_PERF_CURRENT 0 #define TULIP_PERF_PREVIOUS 1 #define TULIP_PERF_TOTAL 2 #define TULIP_PERF_MAX 3 /* * Per-driver-instance state. */ struct tulip_softc { device_t tulip_dev; struct ifmedia tulip_ifmedia; int tulip_unit; struct ifnet *tulip_ifp; u_char tulip_enaddr[ETHER_ADDR_LEN]; bus_space_tag_t tulip_csrs_bst; bus_space_handle_t tulip_csrs_bsh; tulip_regfile_t tulip_csrs; u_int32_t tulip_flags; u_int32_t tulip_features; u_int32_t tulip_intrmask; u_int32_t tulip_cmdmode; u_int32_t tulip_last_system_error:3; u_int32_t tulip_txtimer:3; /* transmission timer */ u_int32_t tulip_system_errors; u_int32_t tulip_statusbits; /* status bits from * CSR5 that may need * to be printed */ tulip_media_info_t *tulip_mediums[TULIP_MEDIA_MAX]; tulip_media_t tulip_media; /* current media type */ u_int32_t tulip_abilities; /* remote system's * abilities (as * defined in IEEE * 802.3u) */ u_int8_t tulip_revinfo; /* chip revision */ u_int8_t tulip_phyaddr; /* current phy */ u_int8_t tulip_gpinit; /* active pins on * 21140 */ u_int8_t tulip_gpdata; /* default gpdata for 21140 */ struct tulip_probe_info tulip_probe; tulip_chipid_t tulip_chipid; /* type of chip we are using */ const tulip_boardsw_t *tulip_boardsw; /* board/chip characteristics */ tulip_softc_t *tulip_slaves; /* slaved devices (ZX3xx) */ #if defined(TULIP_DEBUG) struct tulip_dbg_info tulip_dbg; #endif #if defined(TULIP_PERFSTATS) struct tulip_perfstat tulip_perfstats[TULIP_PERF_MAX]; #endif tulip_dot3_stats_t tulip_dot3stats; tulip_ringinfo_t tulip_rxinfo; tulip_ringinfo_t tulip_txinfo; tulip_media_info_t tulip_mediainfo[10]; /* * The setup buffers for sending the setup frame to the chip. one is * the one being sent while the other is the one being filled. */ bus_dma_tag_t tulip_setup_tag; bus_dmamap_t tulip_setup_map; bus_addr_t tulip_setup_dma_addr; u_int32_t *tulip_setupbuf; u_int32_t tulip_setupdata[192 / sizeof(u_int32_t)]; char tulip_boardid[24]; u_int8_t tulip_rombuf[128]; /* must be aligned */ /* needed for multiport boards */ u_int8_t tulip_pci_busno; u_int8_t tulip_pci_devno; u_int8_t tulip_connidx; tulip_srom_connection_t tulip_conntype; struct callout tulip_callout; struct mtx tulip_mutex; struct callout tulip_stat_timer; }; #define tulip_curperfstats tulip_perfstats[TULIP_PERF_CURRENT] #define tulip_probe_count tulip_probe.probe_count #define tulip_probe_timeout tulip_probe.probe_timeout #define tulip_probe_state tulip_probe.probe_state #define tulip_probe_media tulip_probe.probe_media #define tulip_probe_mediamask tulip_probe.probe_mediamask #define tulip_probe_passes tulip_probe.probe_passes /* Definitions for tulip_flags. */ #define TULIP_WANTSETUP 0x00000001 #define TULIP_WANTHASHPERFECT 0x00000002 #define TULIP_WANTHASHONLY 0x00000004 #define TULIP_DOINGSETUP 0x00000008 #define TULIP_PRINTMEDIA 0x00000010 #define TULIP_TXPROBE_ACTIVE 0x00000020 #define TULIP_ALLMULTI 0x00000040 #define TULIP_WANTRXACT 0x00000080 #define TULIP_RXACT 0x00000100 #define TULIP_INRESET 0x00000200 #define TULIP_NEEDRESET 0x00000400 #define TULIP_SQETEST 0x00000800 #define TULIP_xxxxxx0 0x00001000 #define TULIP_xxxxxx1 0x00002000 #define TULIP_WANTTXSTART 0x00004000 #define TULIP_NEWTXTHRESH 0x00008000 #define TULIP_NOAUTOSENSE 0x00010000 #define TULIP_PRINTLINKUP 0x00020000 #define TULIP_LINKUP 0x00040000 #define TULIP_RXBUFSLOW 0x00080000 #define TULIP_NOMESSAGES 0x00100000 #define TULIP_SYSTEMERROR 0x00200000 #define TULIP_TIMEOUTPENDING 0x00400000 #define TULIP_xxxxxx2 0x00800000 #define TULIP_TRYNWAY 0x01000000 #define TULIP_DIDNWAY 0x02000000 #define TULIP_RXIGNORE 0x04000000 #define TULIP_PROBE1STPASS 0x08000000 #define TULIP_DEVICEPROBE 0x10000000 #define TULIP_PROMISC 0x20000000 #define TULIP_HASHONLY 0x40000000 #define TULIP_xxxxxx3 0x80000000 /* Definitions for tulip_features. */ #define TULIP_HAVE_GPR 0x00000001 /* have gp register (140[A]) */ #define TULIP_HAVE_RXBADOVRFLW 0x00000002 /* RX corrupts on overflow */ #define TULIP_HAVE_POWERMGMT 0x00000004 /* Snooze/sleep modes */ #define TULIP_HAVE_MII 0x00000008 /* Some medium on MII */ #define TULIP_HAVE_SIANWAY 0x00000010 /* SIA does NWAY */ #define TULIP_HAVE_DUALSENSE 0x00000020 /* SIA senses both AUI & TP */ #define TULIP_HAVE_SIAGP 0x00000040 /* SIA has a GP port */ #define TULIP_HAVE_BROKEN_HASH 0x00000080 /* Broken Multicast Hash */ #define TULIP_HAVE_ISVSROM 0x00000100 /* uses ISV SROM Format */ #define TULIP_HAVE_BASEROM 0x00000200 /* Board ROM can be cloned */ #define TULIP_HAVE_SLAVEDROM 0x00000400 /* Board ROM cloned */ #define TULIP_HAVE_SLAVEDINTR 0x00000800 /* Board slaved interrupt */ #define TULIP_HAVE_SHAREDINTR 0x00001000 /* Board shares interrupts */ #define TULIP_HAVE_OKROM 0x00002000 /* ROM was recognized */ #define TULIP_HAVE_NOMEDIA 0x00004000 /* did not detect any media */ #define TULIP_HAVE_STOREFWD 0x00008000 /* have CMD_STOREFWD */ #define TULIP_HAVE_SIA100 0x00010000 /* has LS100 in SIA status */ #define TULIP_HAVE_OKSROM 0x00020000 /* SROM CRC is OK */ #define TULIP_DO_AUTOSENSE(sc) \ (IFM_SUBTYPE((sc)->tulip_ifmedia.ifm_media) == IFM_AUTO) #if defined(TULIP_HDR_DATA) static const char *const tulip_chipdescs[] = { "21040 [10Mb/s]", "21041 [10Mb/s]", "21140 [10-100Mb/s]", "21140A [10-100Mb/s]", "21142 [10-100Mb/s]", "21143 [10-100Mb/s]", }; static const char *const tulip_mediums[] = { "unknown", /* TULIP_MEDIA_UNKNOWN */ "10baseT", /* TULIP_MEDIA_10BASET */ "Full Duplex 10baseT", /* TULIP_MEDIA_10BASET_FD */ "BNC", /* TULIP_MEDIA_BNC */ "AUI", /* TULIP_MEDIA_AUI */ "External SIA", /* TULIP_MEDIA_EXTSIA */ "AUI/BNC", /* TULIP_MEDIA_AUIBNC */ "100baseTX", /* TULIP_MEDIA_100BASET */ "Full Duplex 100baseTX",/* TULIP_MEDIA_100BASET_FD */ "100baseT4", /* TULIP_MEDIA_100BASET4 */ "100baseFX", /* TULIP_MEDIA_100BASEFX */ "Full Duplex 100baseFX",/* TULIP_MEDIA_100BASEFX_FD */ }; static const int tulip_media_to_ifmedia[] = { IFM_ETHER | IFM_NONE, /* TULIP_MEDIA_UNKNOWN */ IFM_ETHER | IFM_10_T, /* TULIP_MEDIA_10BASET */ IFM_ETHER | IFM_10_T | IFM_FDX, /* TULIP_MEDIA_10BASET_FD */ IFM_ETHER | IFM_10_2, /* TULIP_MEDIA_BNC */ IFM_ETHER | IFM_10_5, /* TULIP_MEDIA_AUI */ IFM_ETHER | IFM_MANUAL, /* TULIP_MEDIA_EXTSIA */ IFM_ETHER | IFM_10_5, /* TULIP_MEDIA_AUIBNC */ IFM_ETHER | IFM_100_TX, /* TULIP_MEDIA_100BASET */ IFM_ETHER | IFM_100_TX | IFM_FDX, /* TULIP_MEDIA_100BASET_FD */ IFM_ETHER | IFM_100_T4, /* TULIP_MEDIA_100BASET4 */ IFM_ETHER | IFM_100_FX, /* TULIP_MEDIA_100BASEFX */ IFM_ETHER | IFM_100_FX | IFM_FDX, /* TULIP_MEDIA_100BASEFX_FD */ }; static const char *const tulip_system_errors[] = { "parity error", "master abort", "target abort", "reserved #3", "reserved #4", "reserved #5", "reserved #6", "reserved #7", }; static const char *const tulip_status_bits[] = { NULL, "transmit process stopped", NULL, "transmit jabber timeout", NULL, "transmit underflow", NULL, "receive underflow", "receive process stopped", "receive watchdog timeout", NULL, NULL, "link failure", NULL, NULL, }; static const struct { tulip_srom_connection_t sc_type; tulip_media_t sc_media; u_int32_t sc_attrs; } tulip_srom_conninfo[] = { { TULIP_SROM_CONNTYPE_10BASET, TULIP_MEDIA_10BASET }, { TULIP_SROM_CONNTYPE_BNC, TULIP_MEDIA_BNC }, { TULIP_SROM_CONNTYPE_AUI, TULIP_MEDIA_AUI }, { TULIP_SROM_CONNTYPE_100BASETX, TULIP_MEDIA_100BASETX }, { TULIP_SROM_CONNTYPE_100BASET4, TULIP_MEDIA_100BASET4 }, { TULIP_SROM_CONNTYPE_100BASEFX, TULIP_MEDIA_100BASEFX }, { TULIP_SROM_CONNTYPE_MII_10BASET, TULIP_MEDIA_10BASET, TULIP_SROM_ATTR_MII }, { TULIP_SROM_CONNTYPE_MII_100BASETX, TULIP_MEDIA_100BASETX, TULIP_SROM_ATTR_MII }, { TULIP_SROM_CONNTYPE_MII_100BASET4, TULIP_MEDIA_100BASET4, TULIP_SROM_ATTR_MII }, { TULIP_SROM_CONNTYPE_MII_100BASEFX, TULIP_MEDIA_100BASEFX, TULIP_SROM_ATTR_MII }, { TULIP_SROM_CONNTYPE_10BASET_NWAY, TULIP_MEDIA_10BASET, TULIP_SROM_ATTR_NWAY }, { TULIP_SROM_CONNTYPE_10BASET_FD, TULIP_MEDIA_10BASET_FD }, { TULIP_SROM_CONNTYPE_MII_10BASET_FD, TULIP_MEDIA_10BASET_FD, TULIP_SROM_ATTR_MII }, { TULIP_SROM_CONNTYPE_100BASETX_FD, TULIP_MEDIA_100BASETX_FD }, { TULIP_SROM_CONNTYPE_MII_100BASETX_FD, TULIP_MEDIA_100BASETX_FD, TULIP_SROM_ATTR_MII }, { TULIP_SROM_CONNTYPE_10BASET_NOLINKPASS, TULIP_MEDIA_10BASET, TULIP_SROM_ATTR_NOLINKPASS }, { TULIP_SROM_CONNTYPE_AUTOSENSE, TULIP_MEDIA_UNKNOWN, TULIP_SROM_ATTR_AUTOSENSE }, { TULIP_SROM_CONNTYPE_AUTOSENSE_POWERUP, TULIP_MEDIA_UNKNOWN, TULIP_SROM_ATTR_AUTOSENSE | TULIP_SROM_ATTR_POWERUP }, { TULIP_SROM_CONNTYPE_AUTOSENSE_NWAY, TULIP_MEDIA_UNKNOWN, TULIP_SROM_ATTR_AUTOSENSE | TULIP_SROM_ATTR_NWAY }, { TULIP_SROM_CONNTYPE_NOT_USED, TULIP_MEDIA_UNKNOWN } }; #define TULIP_SROM_LASTCONNIDX \ (sizeof(tulip_srom_conninfo)/sizeof(tulip_srom_conninfo[0]) - 1) static const struct { tulip_media_t sm_type; tulip_srom_media_t sm_srom_type; } tulip_srom_mediums[] = { { TULIP_MEDIA_100BASEFX_FD, TULIP_SROM_MEDIA_100BASEFX_FD }, { TULIP_MEDIA_100BASEFX, TULIP_SROM_MEDIA_100BASEFX }, { TULIP_MEDIA_100BASET4, TULIP_SROM_MEDIA_100BASET4 }, { TULIP_MEDIA_100BASETX_FD, TULIP_SROM_MEDIA_100BASETX_FD }, { TULIP_MEDIA_100BASETX, TULIP_SROM_MEDIA_100BASETX }, { TULIP_MEDIA_10BASET_FD, TULIP_SROM_MEDIA_10BASET_FD }, { TULIP_MEDIA_AUI, TULIP_SROM_MEDIA_AUI }, { TULIP_MEDIA_BNC, TULIP_SROM_MEDIA_BNC }, { TULIP_MEDIA_10BASET, TULIP_SROM_MEDIA_10BASET }, { TULIP_MEDIA_UNKNOWN } }; #endif /* TULIP_HDR_DATA */ /* * Macro to encode 16 bits of a MAC address into the setup buffer. Since * we are casting the two bytes in the char array to a uint16 and then * handing them to this macro, we don't need to swap the bytes in the big * endian case, just shift them left 16. */ #if BYTE_ORDER == BIG_ENDIAN #define TULIP_SP_MAC(x) ((x) << 16) #else #define TULIP_SP_MAC(x) (x) #endif /* * This driver supports a maximum of 32 tulip boards. * This should be enough for the foreseeable future. */ #define TULIP_MAX_DEVICES 32 #define _TULIP_DESC_SYNC(ri, op) \ bus_dmamap_sync((ri)->ri_ring_tag, (ri)->ri_ring_map, (op)) #define _TULIP_MAP_SYNC(ri, di, op) \ bus_dmamap_sync((ri)->ri_data_tag, *(di)->di_map, (op)) /* * Descriptors are both read from and written to by the card (corresponding * to DMA WRITE and READ operations in bus-dma speak). Receive maps are * written to by the card (a DMA READ operation in bus-dma) and transmit * buffers are read from by the card (a DMA WRITE operation in bus-dma). */ #define TULIP_RXDESC_PRESYNC(ri) \ _TULIP_DESC_SYNC(ri, BUS_DMASYNC_PREREAD|BUS_DMASYNC_PREWRITE) #define TULIP_RXDESC_POSTSYNC(ri) \ _TULIP_DESC_SYNC(ri, BUS_DMASYNC_POSTREAD|BUS_DMASYNC_POSTWRITE) #define TULIP_RXMAP_PRESYNC(ri, di) \ _TULIP_MAP_SYNC(ri, di, BUS_DMASYNC_PREREAD) #define TULIP_RXMAP_POSTSYNC(ri, di) \ _TULIP_MAP_SYNC(ri, di, BUS_DMASYNC_POSTREAD) #define TULIP_TXDESC_PRESYNC(ri) \ _TULIP_DESC_SYNC(ri, BUS_DMASYNC_PREREAD|BUS_DMASYNC_PREWRITE) #define TULIP_TXDESC_POSTSYNC(ri) \ _TULIP_DESC_SYNC(ri, BUS_DMASYNC_POSTREAD|BUS_DMASYNC_POSTWRITE) #define TULIP_TXMAP_PRESYNC(ri, di) \ _TULIP_MAP_SYNC(ri, di, BUS_DMASYNC_PREWRITE) #define TULIP_TXMAP_POSTSYNC(ri, di) \ _TULIP_MAP_SYNC(ri, di, BUS_DMASYNC_POSTWRITE) -#ifdef notyet -#define SIOCGADDRROM _IOW('i', 240, struct ifreq) /* get 128 bytes of ROM */ -#define SIOCGCHIPID _IOWR('i', 241, struct ifreq) /* get chipid */ -#endif - #if defined(TULIP_HDR_DATA) static tulip_softc_t *tulips[TULIP_MAX_DEVICES]; #endif #define loudprintf if (bootverbose) printf #if defined(TULIP_PERFSTATS) #define TULIP_PERFMERGE(sc, member) \ do { (sc)->tulip_perfstats[TULIP_PERF_TOTAL].member \ += (sc)->tulip_perfstats[TULIP_PERF_CURRENT].member; \ (sc)->tulip_perfstats[TULIP_PERF_PREVIOUS].member \ = (sc)->tulip_perfstats[TULIP_PERF_CURRENT].member; \ (sc)->tulip_perfstats[TULIP_PERF_CURRENT].member = 0; } while (0) #define TULIP_PERFSTART(name) const tulip_cycle_t perfstart_ ## name = TULIP_PERFREAD(); #define TULIP_PERFEND(name) do { \ (sc)->tulip_curperfstats.perf_ ## name ## _cycles += TULIP_PERFDIFF(perfstart_ ## name, TULIP_PERFREAD()); \ (sc)->tulip_curperfstats.perf_ ## name ++; \ } while (0) typedef u_long tulip_cycle_t; static __inline tulip_cycle_t TULIP_PERFREAD(void) { return (get_cyclecount()); } #define TULIP_PERFDIFF(s, f) ((f) - (s)) #else #define TULIP_PERFSTART(name) #define TULIP_PERFEND(name) do { } while (0) #define TULIP_PERFMERGE(s,n) do { } while (0) #endif /* TULIP_PERFSTATS */ #define TULIP_CRC32_POLY 0xEDB88320UL /* CRC-32 Poly -- Little * Endian */ #define TULIP_MAX_TXSEG 30 #define TULIP_MAX_FRAGS 2 #define TULIP_ADDREQUAL(a1, a2) \ (((u_int16_t *)a1)[0] == ((u_int16_t *)a2)[0] \ && ((u_int16_t *)a1)[1] == ((u_int16_t *)a2)[1] \ && ((u_int16_t *)a1)[2] == ((u_int16_t *)a2)[2]) #define TULIP_ADDRBRDCST(a1) \ (((u_int16_t *)a1)[0] == 0xFFFFU \ && ((u_int16_t *)a1)[1] == 0xFFFFU \ && ((u_int16_t *)a1)[2] == 0xFFFFU) #define TULIP_MUTEX(sc) (&(sc)->tulip_mutex) #define TULIP_LOCK(sc) mtx_lock(TULIP_MUTEX(sc)) #define TULIP_UNLOCK(sc) mtx_unlock(TULIP_MUTEX(sc)) #define TULIP_LOCK_ASSERT(sc) mtx_assert(TULIP_MUTEX(sc), MA_OWNED) #endif /* DEV_DE_IF_DEVAR_H */ Index: stable/11 =================================================================== --- stable/11 (revision 332289) +++ stable/11 (revision 332290) Property changes on: stable/11 ___________________________________________________________________ Modified: svn:mergeinfo ## -0,0 +0,1 ## Merged /head:r331737