/* $OpenBSD: mpt.c,v 1.20 2005/12/03 04:00:08 marco Exp $ */ /* $NetBSD: mpt.c,v 1.4 2003/11/02 11:07:45 wiz Exp $ */ /* * Copyright (c) 2000, 2001 by Greg Ansley * * 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 immediately at the beginning of the file, without modification, * 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 AND CONTRIBUTORS ``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 OR CONTRIBUTORS 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. */ /* * Additional Copyright (c) 2002 by Matthew Jacob under same license. */ /* * mpt.c: * * Generic routines for LSI Fusion adapters. * * Adapted from the FreeBSD "mpt" driver by Jason R. Thorpe for * Wasabi Systems, Inc. */ #include /* __KERNEL_RCSID(0, "$NetBSD: mpt.c,v 1.4 2003/11/02 11:07:45 wiz Exp $"); */ #include #define MPT_MAX_TRYS 3 #define MPT_MAX_WAIT 300000 static int maxwait_ack = 0; static int maxwait_int = 0; static int maxwait_state = 0; __inline u_int32_t mpt_rd_db(struct mpt_softc *); __inline u_int32_t mpt_rd_intr(struct mpt_softc *); int mpt_wait_db_ack(struct mpt_softc *); int mpt_wait_db_int(struct mpt_softc *); int mpt_wait_state(struct mpt_softc *, enum DB_STATE_BITS); int mpt_get_iocfacts(struct mpt_softc *, MSG_IOC_FACTS_REPLY *); int mpt_get_portfacts(struct mpt_softc *, MSG_PORT_FACTS_REPLY *); int mpt_send_ioc_init(struct mpt_softc *, u_int32_t); void mpt_print_header(struct mpt_softc *, char *, CONFIG_PAGE_HEADER *); int mpt_read_config_info_mfg(struct mpt_softc *); int mpt_read_config_info_iou(struct mpt_softc *); int mpt_read_config_info_ioc(struct mpt_softc *); int mpt_read_config_info_raid(struct mpt_softc *); int mpt_read_config_info_spi(struct mpt_softc *); int mpt_set_initial_config_spi(struct mpt_softc *); int mpt_send_port_enable(struct mpt_softc *, int); int mpt_send_event_request(struct mpt_softc *, int); __inline u_int32_t mpt_rd_db(struct mpt_softc *mpt) { return mpt_read(mpt, MPT_OFFSET_DOORBELL); } __inline u_int32_t mpt_rd_intr(struct mpt_softc *mpt) { return mpt_read(mpt, MPT_OFFSET_INTR_STATUS); } /* Busy wait for a door bell to be read by IOC */ int mpt_wait_db_ack(struct mpt_softc *mpt) { int i; for (i=0; i < MPT_MAX_WAIT; i++) { if (!MPT_DB_IS_BUSY(mpt_rd_intr(mpt))) { maxwait_ack = i > maxwait_ack ? i : maxwait_ack; return MPT_OK; } DELAY(100); } return MPT_FAIL; } /* Busy wait for a door bell interrupt */ int mpt_wait_db_int(struct mpt_softc *mpt) { int i; for (i=0; i < MPT_MAX_WAIT; i++) { if (MPT_DB_INTR(mpt_rd_intr(mpt))) { maxwait_int = i > maxwait_int ? i : maxwait_int; return MPT_OK; } DELAY(100); } return MPT_FAIL; } /* Wait for IOC to transition to a give state */ void mpt_check_doorbell(struct mpt_softc *mpt) { u_int32_t db = mpt_rd_db(mpt); /* prepare this function for error path */ /* if (MPT_STATE(db) != MPT_DB_STATE_RUNNING) { */ switch (MPT_STATE(db)) { case MPT_DB_STATE_FAULT: case MPT_DB_STATE_READY: /* 1030 needs reset, issue IOC_INIT */ /* FIXME */ if (mpt_init(mpt, MPT_DB_INIT_HOST) != 0) panic("%s: Can't get MPT IOC operational", mpt->mpt_dev.dv_xname); break; default: /* nothing done for now */ break; } } /* Wait for IOC to transition to a give state */ int mpt_wait_state(struct mpt_softc *mpt, enum DB_STATE_BITS state) { int i; for (i = 0; i < MPT_MAX_WAIT; i++) { u_int32_t db = mpt_rd_db(mpt); if (MPT_STATE(db) == state) { maxwait_state = i > maxwait_state ? i : maxwait_state; return (MPT_OK); } DELAY(100); } return (MPT_FAIL); } /* Issue the reset COMMAND to the IOC */ int mpt_soft_reset(struct mpt_softc *mpt) { if (mpt->verbose) { mpt_prt(mpt, "soft reset"); } /* Have to use hard reset if we are not in Running state */ if (MPT_STATE(mpt_rd_db(mpt)) != MPT_DB_STATE_RUNNING) { mpt_prt(mpt, "soft reset failed: device not running"); return MPT_FAIL; } /* If door bell is in use we don't have a chance of getting * a word in since the IOC probably crashed in message * processing. So don't waste our time. */ if (MPT_DB_IS_IN_USE(mpt_rd_db(mpt))) { mpt_prt(mpt, "soft reset failed: doorbell wedged"); return MPT_FAIL; } /* Send the reset request to the IOC */ mpt_write(mpt, MPT_OFFSET_DOORBELL, MPI_FUNCTION_IOC_MESSAGE_UNIT_RESET << MPI_DOORBELL_FUNCTION_SHIFT); if (mpt_wait_db_ack(mpt) != MPT_OK) { mpt_prt(mpt, "soft reset failed: ack timeout"); return MPT_FAIL; } /* Wait for the IOC to reload and come out of reset state */ if (mpt_wait_state(mpt, MPT_DB_STATE_READY) != MPT_OK) { mpt_prt(mpt, "soft reset failed: device did not start running"); return MPT_FAIL; } return MPT_OK; } /* This is a magic diagnostic reset that resets all the ARM * processors in the chip. */ void mpt_hard_reset(struct mpt_softc *mpt) { u_int32_t diag0; int count; /* This extra read comes for the Linux source * released by LSI. It's function is undocumented! */ if (mpt->verbose) { mpt_prt(mpt, "hard reset"); } mpt_read(mpt, MPT_OFFSET_FUBAR); /* Enable diagnostic registers */ mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_1); mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_2); mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_3); mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_4); mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_5); /* Diag. port is now active so we can now hit the reset bit */ mpt_write(mpt, MPT_OFFSET_DIAGNOSTIC, MPT_DIAG_RESET_IOC); DELAY(10000); /* Disable Diagnostic Register */ mpt_write(mpt, MPT_OFFSET_SEQUENCE, 0xFF); /* Restore the config register values */ /* Hard resets are known to screw up the BAR for diagnostic memory accesses (Mem1). */ mpt_set_config_regs(mpt); if (mpt->mpt2 != NULL) { mpt_set_config_regs(mpt->mpt2); } /* Note that if there is no valid firmware to run, the doorbell will remain in the reset state (0x00000000) */ /* try to download firmware, if available */ if (mpt->fw) { /* wait for the adapter to finish the reset */ for (count = 0; count < 30; count++) { diag0 = mpt_read(mpt, MPI_DIAGNOSTIC_OFFSET); mpt_prt(mpt, "diag0=%08x", diag0); if (!(diag0 & MPI_DIAG_RESET_ADAPTER)) { break; } /* wait 1 second */ DELAY(1000); } count = mpt_downloadboot(mpt); if (count < 0) { panic("firmware downloadboot failure (%d)!", count); } } } /* * Reset the IOC when needed. Try software command first then if needed * poke at the magic diagnostic reset. Note that a hard reset resets * *both* IOCs on dual function chips (FC929 && LSI1030) as well as * fouls up the PCI configuration registers. */ int mpt_reset(struct mpt_softc *mpt) { int ret; /* Try a soft reset */ if ((ret = mpt_soft_reset(mpt)) != MPT_OK) { /* Failed; do a hard reset */ mpt_hard_reset(mpt); /* Wait for the IOC to reload and come out of reset state */ ret = mpt_wait_state(mpt, MPT_DB_STATE_READY); if (ret != MPT_OK) { mpt_prt(mpt, "failed to reset device"); } } return ret; } /* Return a command buffer to the free queue */ void mpt_free_request(struct mpt_softc *mpt, struct req_entry *req) { if (req == NULL || req != &mpt->request_pool[req->index]) { panic("mpt_free_request bad req ptr"); return; } if (req->debug == REQ_FREE) { /* * XXX MU this should not happen but do not corrupt the free * list if it does */ mpt_prt(mpt, "request %d already free", req->index); return; } req->sequence = 0; req->xfer = NULL; req->debug = REQ_FREE; SLIST_INSERT_HEAD(&mpt->request_free_list, req, link); } /* Initialize command buffer */ void mpt_init_request(struct mpt_softc *mpt, struct req_entry *req) { if (req == NULL || req != &mpt->request_pool[req->index]) { panic("mpt_init_request bad req ptr"); return; } req->sequence = 0; req->xfer = NULL; req->debug = REQ_FREE; SLIST_INSERT_HEAD(&mpt->request_free_list, req, link); } /* Get a command buffer from the free queue */ struct req_entry * mpt_get_request(struct mpt_softc *mpt) { struct req_entry *req; req = SLIST_FIRST(&mpt->request_free_list); if (req != NULL) { if (req != &mpt->request_pool[req->index]) { panic("mpt_get_request: corrupted request free list"); } if (req->xfer != NULL) { panic("mpt_get_request: corrupted request free list " "(xfer)"); } SLIST_REMOVE_HEAD(&mpt->request_free_list, link); req->debug = REQ_IN_PROGRESS; } return req; } /* Pass the command to the IOC */ void mpt_send_cmd(struct mpt_softc *mpt, struct req_entry *req) { req->sequence = mpt->sequence++; if (mpt->verbose > 1) { u_int32_t *pReq; pReq = req->req_vbuf; mpt_prt(mpt, "Send Request %d (0x%x):", req->index, req->req_pbuf); mpt_prt(mpt, "%08x %08x %08x %08x", pReq[0], pReq[1], pReq[2], pReq[3]); mpt_prt(mpt, "%08x %08x %08x %08x", pReq[4], pReq[5], pReq[6], pReq[7]); mpt_prt(mpt, "%08x %08x %08x %08x", pReq[8], pReq[9], pReq[10], pReq[11]); mpt_prt(mpt, "%08x %08x %08x %08x", pReq[12], pReq[13], pReq[14], pReq[15]); } MPT_SYNC_REQ(mpt, req, BUS_DMASYNC_PREREAD|BUS_DMASYNC_PREWRITE); req->debug = REQ_ON_CHIP; mpt_write(mpt, MPT_OFFSET_REQUEST_Q, (u_int32_t) req->req_pbuf); } /* * Give the reply buffer back to the IOC after we have * finished processing it. */ void mpt_free_reply(struct mpt_softc *mpt, u_int32_t ptr) { mpt_write(mpt, MPT_OFFSET_REPLY_Q, ptr); } /* Get a reply from the IOC */ u_int32_t mpt_pop_reply_queue(struct mpt_softc *mpt) { return mpt_read(mpt, MPT_OFFSET_REPLY_Q); } /* * Send a command to the IOC via the handshake register. * * Only done at initialization time and for certain unusual * commands such as device/bus reset as specified by LSI. */ int mpt_send_handshake_cmd(struct mpt_softc *mpt, size_t len, void *cmd) { int i; u_int32_t data, *data32; /* Check condition of the IOC */ data = mpt_rd_db(mpt); if (((MPT_STATE(data) != MPT_DB_STATE_READY) && (MPT_STATE(data) != MPT_DB_STATE_RUNNING) && (MPT_STATE(data) != MPT_DB_STATE_FAULT)) || (MPT_DB_IS_IN_USE(data))) { mpt_prt(mpt, "handshake aborted due to invalid doorbell state"); mpt_print_db(data); return(EBUSY); } /* We move things in 32 bit chunks */ len = (len + 3) >> 2; data32 = cmd; /* Clear any left over pending doorbell interrupts */ if (MPT_DB_INTR(mpt_rd_intr(mpt))) mpt_write(mpt, MPT_OFFSET_INTR_STATUS, 0); /* * Tell the handshake reg. we are going to send a command * and how long it is going to be. */ data = (MPI_FUNCTION_HANDSHAKE << MPI_DOORBELL_FUNCTION_SHIFT) | (len << MPI_DOORBELL_ADD_DWORDS_SHIFT); mpt_write(mpt, MPT_OFFSET_DOORBELL, data); /* Wait for the chip to notice */ if (mpt_wait_db_int(mpt) != MPT_OK) { mpt_prt(mpt, "mpt_send_handshake_cmd timeout1"); return ETIMEDOUT; } /* Clear the interrupt */ mpt_write(mpt, MPT_OFFSET_INTR_STATUS, 0); if (mpt_wait_db_ack(mpt) != MPT_OK) { mpt_prt(mpt, "mpt_send_handshake_cmd timeout2"); return ETIMEDOUT; } /* Send the command */ for (i = 0; i < len; i++) { mpt_write(mpt, MPT_OFFSET_DOORBELL, *data32++); if (mpt_wait_db_ack(mpt) != MPT_OK) { mpt_prt(mpt, "mpt_send_handshake_cmd timeout! index = %d", i); return ETIMEDOUT; } } return MPT_OK; } /* Get the response from the handshake register */ int mpt_recv_handshake_reply(struct mpt_softc *mpt, size_t reply_len, void *reply) { int left, reply_left; u_int16_t *data16; MSG_DEFAULT_REPLY *hdr; /* We move things out in 16 bit chunks */ reply_len >>= 1; data16 = (u_int16_t *)reply; hdr = (MSG_DEFAULT_REPLY *)reply; /* Get first word */ if (mpt_wait_db_int(mpt) != MPT_OK) { mpt_prt(mpt, "mpt_recv_handshake_cmd timeout1"); return ETIMEDOUT; } *data16++ = mpt_read(mpt, MPT_OFFSET_DOORBELL) & MPT_DB_DATA_MASK; mpt_write(mpt, MPT_OFFSET_INTR_STATUS, 0); /* Get Second Word */ if (mpt_wait_db_int(mpt) != MPT_OK) { mpt_prt(mpt, "mpt_recv_handshake_cmd timeout2"); return ETIMEDOUT; } *data16++ = mpt_read(mpt, MPT_OFFSET_DOORBELL) & MPT_DB_DATA_MASK; mpt_write(mpt, MPT_OFFSET_INTR_STATUS, 0); /* With the second word, we can now look at the length */ if (mpt->verbose > 1 && ((reply_len >> 1) != hdr->MsgLength)) { mpt_prt(mpt, "reply length does not match message length: " "got 0x%02x, expected 0x%02x", hdr->MsgLength << 2, reply_len << 1); } /* Get rest of the reply; but don't overflow the provided buffer */ left = (hdr->MsgLength << 1) - 2; reply_left = reply_len - 2; while (left--) { u_int16_t datum; if (mpt_wait_db_int(mpt) != MPT_OK) { mpt_prt(mpt, "mpt_recv_handshake_cmd timeout3"); return ETIMEDOUT; } datum = mpt_read(mpt, MPT_OFFSET_DOORBELL); if (reply_left-- > 0) *data16++ = datum & MPT_DB_DATA_MASK; mpt_write(mpt, MPT_OFFSET_INTR_STATUS, 0); } /* One more wait & clear at the end */ if (mpt_wait_db_int(mpt) != MPT_OK) { mpt_prt(mpt, "mpt_recv_handshake_cmd timeout4"); return ETIMEDOUT; } mpt_write(mpt, MPT_OFFSET_INTR_STATUS, 0); if ((hdr->IOCStatus & MPI_IOCSTATUS_MASK) != MPI_IOCSTATUS_SUCCESS) { if (mpt->verbose > 1) mpt_print_reply(hdr); return (MPT_FAIL | hdr->IOCStatus); } return (0); } int mpt_get_iocfacts(struct mpt_softc *mpt, MSG_IOC_FACTS_REPLY *freplp) { MSG_IOC_FACTS f_req; int error; bzero(&f_req, sizeof f_req); f_req.Function = MPI_FUNCTION_IOC_FACTS; f_req.MsgContext = 0x12071942; error = mpt_send_handshake_cmd(mpt, sizeof f_req, &f_req); if (error) return(error); error = mpt_recv_handshake_reply(mpt, sizeof (*freplp), freplp); return (error); } int mpt_get_portfacts(struct mpt_softc *mpt, MSG_PORT_FACTS_REPLY *freplp) { MSG_PORT_FACTS f_req; int error; /* XXX: Only getting PORT FACTS for Port 0 */ bzero(&f_req, sizeof f_req); f_req.Function = MPI_FUNCTION_PORT_FACTS; f_req.MsgContext = 0x12071943; error = mpt_send_handshake_cmd(mpt, sizeof f_req, &f_req); if (error) return(error); error = mpt_recv_handshake_reply(mpt, sizeof (*freplp), freplp); return (error); } /* * Send the initialization request. This is where we specify how many * SCSI busses and how many devices per bus we wish to emulate. * This is also the command that specifies the max size of the reply * frames from the IOC that we will be allocating. */ int mpt_send_ioc_init(struct mpt_softc *mpt, u_int32_t who) { int error = 0; MSG_IOC_INIT init; MSG_IOC_INIT_REPLY reply; bzero(&init, sizeof init); init.WhoInit = who; init.Function = MPI_FUNCTION_IOC_INIT; if (mpt->is_fc) { init.MaxDevices = 255; } else { init.MaxDevices = 16; } init.MaxBuses = 1; init.ReplyFrameSize = MPT_REPLY_SIZE; init.MsgContext = 0x12071941; /* * If we are in a recovery mode and we uploaded the FW image, * then the fw pointer is not NULL. Skip the upload a second time * Set this flag if fw set for IOC. */ mpt->upload_fw = 0; if (mpt->fw_download_boot) { if (mpt->fw) { init.Flags = MPI_IOCINIT_FLAGS_DISCARD_FW_IMAGE; } else { mpt->upload_fw = 1; } } if (mpt->verbose > 1) { mpt_prt(mpt, "flags %d, upload_fw %d", init.Flags, mpt->upload_fw); } if ((error = mpt_send_handshake_cmd(mpt, sizeof init, &init)) != 0) { return(error); } error = mpt_recv_handshake_reply(mpt, sizeof reply, &reply); return (error); } /* * Utiltity routine to read configuration headers and pages */ int mpt_read_cfg_header(struct mpt_softc *mpt, int PageType, int PageNumber, int PageAddress, CONFIG_PAGE_HEADER *rslt) { int count; struct req_entry *req; MSG_CONFIG *cfgp; MSG_CONFIG_REPLY *reply; req = mpt_get_request(mpt); cfgp = req->req_vbuf; bzero(cfgp, sizeof *cfgp); cfgp->Action = MPI_CONFIG_ACTION_PAGE_HEADER; cfgp->Function = MPI_FUNCTION_CONFIG; cfgp->Header.PageNumber = (U8) PageNumber; cfgp->Header.PageType = (U8) PageType; cfgp->PageAddress = PageAddress; MPI_pSGE_SET_FLAGS(((SGE_SIMPLE32 *) &cfgp->PageBufferSGE), (MPI_SGE_FLAGS_LAST_ELEMENT | MPI_SGE_FLAGS_END_OF_BUFFER | MPI_SGE_FLAGS_SIMPLE_ELEMENT | MPI_SGE_FLAGS_END_OF_LIST)); cfgp->MsgContext = req->index | 0x80000000; mpt_check_doorbell(mpt); mpt_send_cmd(mpt, req); count = 0; do { DELAY(500); mpt_intr(mpt); if (++count == 1000) { mpt_prt(mpt, "read_cfg_header timed out"); return (-1); } } while (req->debug == REQ_ON_CHIP); reply = (MSG_CONFIG_REPLY *) MPT_REPLY_PTOV(mpt, req->sequence); if ((reply->IOCStatus & MPI_IOCSTATUS_MASK) != MPI_IOCSTATUS_SUCCESS) { mpt_prt(mpt, "mpt_read_cfg_header: Config Info Status %x", reply->IOCStatus); mpt_free_reply(mpt, (req->sequence << 1)); return (-1); } bcopy(&reply->Header, rslt, sizeof (CONFIG_PAGE_HEADER)); mpt_free_reply(mpt, (req->sequence << 1)); mpt_free_request(mpt, req); return (0); } #define CFG_DATA_OFF 128 int mpt_read_cfg_page(struct mpt_softc *mpt, int PageAddress, CONFIG_PAGE_HEADER *hdr) { int count; struct req_entry *req; SGE_SIMPLE32 *se; MSG_CONFIG *cfgp; size_t amt; MSG_CONFIG_REPLY *reply; req = mpt_get_request(mpt); cfgp = req->req_vbuf; bzero(cfgp, MPT_REQUEST_AREA); cfgp->Action = MPI_CONFIG_ACTION_PAGE_READ_CURRENT; cfgp->Function = MPI_FUNCTION_CONFIG; cfgp->Header = *hdr; amt = (cfgp->Header.PageLength * sizeof (u_int32_t)); cfgp->Header.PageType &= MPI_CONFIG_PAGETYPE_MASK; cfgp->PageAddress = PageAddress; se = (SGE_SIMPLE32 *) &cfgp->PageBufferSGE; se->Address = req->req_pbuf + CFG_DATA_OFF; MPI_pSGE_SET_LENGTH(se, amt); MPI_pSGE_SET_FLAGS(se, (MPI_SGE_FLAGS_SIMPLE_ELEMENT | MPI_SGE_FLAGS_LAST_ELEMENT | MPI_SGE_FLAGS_END_OF_BUFFER | MPI_SGE_FLAGS_END_OF_LIST)); cfgp->MsgContext = req->index | 0x80000000; mpt_check_doorbell(mpt); mpt_send_cmd(mpt, req); count = 0; do { DELAY(500); mpt_intr(mpt); if (++count == 1000) { mpt_prt(mpt, "read_cfg_page timed out"); return (-1); } } while (req->debug == REQ_ON_CHIP); reply = (MSG_CONFIG_REPLY *) MPT_REPLY_PTOV(mpt, req->sequence); if ((reply->IOCStatus & MPI_IOCSTATUS_MASK) != MPI_IOCSTATUS_SUCCESS) { mpt_prt(mpt, "mpt_read_cfg_page: Config Info Status %x", reply->IOCStatus); mpt_free_reply(mpt, (req->sequence << 1)); return (-1); } mpt_free_reply(mpt, (req->sequence << 1)); #if 0 /* XXXJRT */ bus_dmamap_sync(mpt->request_dmat, mpt->request_dmap, BUS_DMASYNC_POSTREAD); #endif if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_PORT && cfgp->Header.PageNumber == 0) { amt = sizeof (CONFIG_PAGE_SCSI_PORT_0); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_PORT && cfgp->Header.PageNumber == 1) { amt = sizeof (CONFIG_PAGE_SCSI_PORT_1); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_PORT && cfgp->Header.PageNumber == 2) { amt = sizeof (CONFIG_PAGE_SCSI_PORT_2); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_DEVICE && cfgp->Header.PageNumber == 0) { amt = sizeof (CONFIG_PAGE_SCSI_DEVICE_0); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_DEVICE && cfgp->Header.PageNumber == 1) { amt = sizeof (CONFIG_PAGE_SCSI_DEVICE_1); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_MANUFACTURING && cfgp->Header.PageNumber == 0) { amt = sizeof (CONFIG_PAGE_MANUFACTURING_0); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_IOC && cfgp->Header.PageNumber == 2) { amt = sizeof (CONFIG_PAGE_IOC_2); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_RAID_VOLUME && cfgp->Header.PageNumber == 0) { amt = sizeof (CONFIG_PAGE_RAID_VOL_0); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_RAID_PHYSDISK && cfgp->Header.PageNumber == 0) { amt = sizeof (CONFIG_PAGE_RAID_PHYS_DISK_0); } bcopy(((caddr_t)req->req_vbuf)+CFG_DATA_OFF, hdr, amt); mpt_free_request(mpt, req); return (0); } int mpt_write_cfg_page(struct mpt_softc *mpt, int PageAddress, CONFIG_PAGE_HEADER *hdr) { int count, hdr_attr; struct req_entry *req; SGE_SIMPLE32 *se; MSG_CONFIG *cfgp; size_t amt; MSG_CONFIG_REPLY *reply; req = mpt_get_request(mpt); cfgp = req->req_vbuf; bzero(cfgp, sizeof *cfgp); hdr_attr = hdr->PageType & MPI_CONFIG_PAGEATTR_MASK; if (hdr_attr != MPI_CONFIG_PAGEATTR_CHANGEABLE && hdr_attr != MPI_CONFIG_PAGEATTR_PERSISTENT) { mpt_prt(mpt, "page type 0x%x not changeable", hdr->PageType & MPI_CONFIG_PAGETYPE_MASK); return (-1); } hdr->PageType &= MPI_CONFIG_PAGETYPE_MASK; cfgp->Action = MPI_CONFIG_ACTION_PAGE_WRITE_CURRENT; cfgp->Function = MPI_FUNCTION_CONFIG; cfgp->Header = *hdr; amt = (cfgp->Header.PageLength * sizeof (u_int32_t)); cfgp->PageAddress = PageAddress; se = (SGE_SIMPLE32 *) &cfgp->PageBufferSGE; se->Address = req->req_pbuf + CFG_DATA_OFF; MPI_pSGE_SET_LENGTH(se, amt); MPI_pSGE_SET_FLAGS(se, (MPI_SGE_FLAGS_SIMPLE_ELEMENT | MPI_SGE_FLAGS_LAST_ELEMENT | MPI_SGE_FLAGS_END_OF_BUFFER | MPI_SGE_FLAGS_END_OF_LIST | MPI_SGE_FLAGS_HOST_TO_IOC)); cfgp->MsgContext = req->index | 0x80000000; if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_PORT && cfgp->Header.PageNumber == 0) { amt = sizeof (CONFIG_PAGE_SCSI_PORT_0); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_PORT && cfgp->Header.PageNumber == 1) { amt = sizeof (CONFIG_PAGE_SCSI_PORT_1); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_PORT && cfgp->Header.PageNumber == 2) { amt = sizeof (CONFIG_PAGE_SCSI_PORT_2); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_DEVICE && cfgp->Header.PageNumber == 0) { amt = sizeof (CONFIG_PAGE_SCSI_DEVICE_0); } else if (cfgp->Header.PageType == MPI_CONFIG_PAGETYPE_SCSI_DEVICE && cfgp->Header.PageNumber == 1) { amt = sizeof (CONFIG_PAGE_SCSI_DEVICE_1); } bcopy(hdr, ((caddr_t)req->req_vbuf)+CFG_DATA_OFF, amt); /* Restore stripped out attributes */ hdr->PageType |= hdr_attr; mpt_check_doorbell(mpt); mpt_send_cmd(mpt, req); count = 0; do { DELAY(500); mpt_intr(mpt); if (++count == 1000) { hdr->PageType |= hdr_attr; mpt_prt(mpt, "mpt_write_cfg_page timed out"); return (-1); } } while (req->debug == REQ_ON_CHIP); reply = (MSG_CONFIG_REPLY *) MPT_REPLY_PTOV(mpt, req->sequence); if ((reply->IOCStatus & MPI_IOCSTATUS_MASK) != MPI_IOCSTATUS_SUCCESS) { mpt_prt(mpt, "mpt_write_cfg_page: Config Info Status %x", reply->IOCStatus); mpt_free_reply(mpt, (req->sequence << 1)); return (-1); } mpt_free_reply(mpt, (req->sequence << 1)); mpt_free_request(mpt, req); return (0); } void mpt_print_header(struct mpt_softc *mpt, char *s, CONFIG_PAGE_HEADER *phdr) { mpt_prt(mpt, "%s %x: %x %x %x %x", s, phdr->PageNumber, phdr->PageType, phdr->PageNumber, phdr->PageLength, phdr->PageVersion); } /* * Read manufacturing configuration information */ int mpt_read_config_info_mfg(struct mpt_softc *mpt) { int rv, i; CONFIG_PAGE_HEADER *phdr[5] = { phdr[0] = &mpt->mpt_mfg_page0.Header, phdr[1] = &mpt->mpt_mfg_page1.Header, phdr[2] = &mpt->mpt_mfg_page2.Header, phdr[3] = &mpt->mpt_mfg_page3.Header, phdr[4] = &mpt->mpt_mfg_page4.Header }; for (i = 0; i < 5 /* 5 pages total */; i++) { /* retrieve MFG headers */ rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_MANUFACTURING, i, 0, phdr[i]); if (rv) { mpt_prt(mpt, "Could not retrieve Manufacturing Page " "%i Header.", i); return (-1); } else if (mpt->verbose > 1) { mpt_print_header(mpt, "Manufacturing Header Page", phdr[i]); } /* retrieve MFG config pages using retrieved headers */ rv = mpt_read_cfg_page(mpt, i, phdr[i]); if (rv) { mpt_prt(mpt, "Could not retrieve manufacturing Page" " %i", i); return (-1); } } /* mpt->verbose = 2; */ if (mpt->verbose > 1) { mpt_prt(mpt, "Manufacturing Page 0 data: %s %s %s %s %s", mpt->mpt_mfg_page0.ChipName, mpt->mpt_mfg_page0.ChipRevision, mpt->mpt_mfg_page0.BoardName, mpt->mpt_mfg_page0.BoardAssembly, mpt->mpt_mfg_page0.BoardTracerNumber); mpt_prt(mpt, "Manufacturing Page 1 data:"); for (i = 0; i < ((mpt->mpt_mfg_page1.Header.PageLength - 1)<< 2); i++) { printf("%02x ", mpt->mpt_mfg_page1.VPD[i]); } printf("\n"); mpt_prt(mpt, "Manufacturing Page 2 data: %x %x", mpt->mpt_mfg_page2.ChipId.PCIRevisionID, mpt->mpt_mfg_page2.ChipId.DeviceID); for (i = 0; i < (mpt->mpt_mfg_page2.Header.PageLength - 2); i++) { printf("%08x ", mpt->mpt_mfg_page2.HwSettings[i]); } printf("\n"); mpt_prt(mpt, "Manufacturing Page 3 data: %x %x", mpt->mpt_mfg_page3.ChipId.PCIRevisionID, mpt->mpt_mfg_page3.ChipId.DeviceID); for (i = 0; i < (mpt->mpt_mfg_page3.Header.PageLength - 2); i++) { printf("%08x ", mpt->mpt_mfg_page3.Info[i]); } printf("\n"); mpt_prt(mpt, "Manufacturing Page 4 data: %x %x %x %x %x", mpt->mpt_mfg_page4.InfoSize1, mpt->mpt_mfg_page4.InfoOffset1, mpt->mpt_mfg_page4.InfoSize0, mpt->mpt_mfg_page4.InfoOffset0, mpt->mpt_mfg_page4.InquirySize, mpt->mpt_mfg_page4.ISVolumeSettings, mpt->mpt_mfg_page4.IMEVolumeSettings, mpt->mpt_mfg_page4.IMVolumeSettings); for (i = 0; i < sizeof(mpt->mpt_mfg_page4.InquiryData); i++) { printf("%02x ", mpt->mpt_mfg_page4.InquiryData[i]); } printf("\n"); } /* mpt->verbose = 1; */ return (0); } /* * Read IO Unit configuration information */ int mpt_read_config_info_iou(struct mpt_softc *mpt) { int rv, i; CONFIG_PAGE_HEADER *phdr[4] = { phdr[0] = &mpt->mpt_iou_page0.Header, phdr[1] = &mpt->mpt_iou_page1.Header, phdr[2] = &mpt->mpt_iou_page2.Header, phdr[3] = &mpt->mpt_iou_page2.Header, }; for (i = 0; i < 4 /* 4 pages total */; i++) { /* retrieve IO Unit headers */ rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_IO_UNIT, i, 0, phdr[i]); if (rv) { mpt_prt(mpt, "Could not retrieve IO Unit Page %i " "header.", i); return (-1); } else if (mpt->verbose > 1) { mpt_print_header(mpt, "IO Unit Header Page", phdr[i]); } /* retrieve IO Unit config pages using retrieved headers */ rv = mpt_read_cfg_page(mpt, i, phdr[i]); if (rv) { mpt_prt(mpt, "Could not retrieve IO Unit Page %i", i); return (-1); } if (i == 0 && mpt->mpt_iou_page0.UniqueValue.High == 0xdeadbeef && mpt->mpt_iou_page0.UniqueValue.Low == 0xdeadbeef) { /* vmware returns a lot of dead beef in page 0 */ mpt->vmware = 1; } } /* mpt->verbose = 2; */ if (mpt->verbose > 1) { mpt_prt(mpt, "IO Unit Page 0 data: %llx", mpt->mpt_iou_page0.UniqueValue); mpt_prt(mpt, "IO Unit Page 1 data: %x", mpt->mpt_iou_page1.Flags); mpt_prt(mpt, "IO Unit Page 2 data: %x %x %x %x %x %x", mpt->mpt_iou_page2.Flags, mpt->mpt_iou_page2.BiosVersion, mpt->mpt_iou_page2.AdapterOrder[0], mpt->mpt_iou_page2.AdapterOrder[1], mpt->mpt_iou_page2.AdapterOrder[2], mpt->mpt_iou_page2.AdapterOrder[3]); } /* mpt->verbose = 1; */ return (0); } /* * Read IOC configuration information */ int mpt_read_config_info_ioc(struct mpt_softc *mpt) { int rv, i; CONFIG_PAGE_HEADER *phdr[5] = { phdr[0] = &mpt->mpt_ioc_page0.Header, phdr[1] = &mpt->mpt_ioc_page1.Header, phdr[2] = &mpt->mpt_ioc_page2.Header, phdr[3] = &mpt->mpt_ioc_page3.Header, phdr[4] = &mpt->mpt_ioc_page4.Header }; for (i = 0; i < 5 /* 5 pages total */; i++) { /* retrieve IOC headers */ rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_IOC, i, 0, phdr[i]); if (rv) { mpt_prt(mpt, "Could not retrieve IOC Page %i header.", i); return (-1); } else if (mpt->verbose > 1) { mpt_print_header(mpt, "IOC Header Page", phdr[i]); } /* retrieve IOC config pages using retrieved headers */ rv = mpt_read_cfg_page(mpt, i, phdr[i]); if (rv) { mpt_prt(mpt, "Could not retrieve IOC Page %i", i); return (-1); } } /* mpt->verbose = 2; */ if (mpt->verbose > 1) { mpt_prt(mpt, "IOC Page 0 data: %x %x %x %x %x %x %x %x", mpt->mpt_ioc_page0.TotalNVStore, mpt->mpt_ioc_page0.FreeNVStore, mpt->mpt_ioc_page0.DeviceID, mpt->mpt_ioc_page0.VendorID, mpt->mpt_ioc_page0.RevisionID, mpt->mpt_ioc_page0.ClassCode, mpt->mpt_ioc_page0.SubsystemID, mpt->mpt_ioc_page0.SubsystemVendorID ); mpt_prt(mpt, "IOC Page 1 data: %x %x %x", mpt->mpt_ioc_page1.Flags, mpt->mpt_ioc_page1.CoalescingTimeout, mpt->mpt_ioc_page1.CoalescingDepth); mpt_prt(mpt, "IOC Page 2 data: %x %x %x %x %x", mpt->mpt_ioc_page2.CapabilitiesFlags, mpt->mpt_ioc_page2.MaxPhysDisks, mpt->mpt_ioc_page2.NumActivePhysDisks, mpt->mpt_ioc_page2.MaxVolumes, mpt->mpt_ioc_page2.NumActiveVolumes); /* FIXME: move this to attach */ if (mpt->mpt_ioc_page2.MaxVolumes > MPI_IOC_PAGE_2_RAID_VOLUME_MAX) { /* complain */ } for (i = 0; i < mpt->mpt_ioc_page2.MaxVolumes; i++) { mpt_prt(mpt, "IOC Page 2 RAID Volume %x %x %x %x %x", mpt->mpt_ioc_page2.RaidVolume[i].VolumeType, mpt->mpt_ioc_page2.RaidVolume[i].VolumePageNumber, mpt->mpt_ioc_page2.RaidVolume[i].VolumeIOC, mpt->mpt_ioc_page2.RaidVolume[i].VolumeBus, mpt->mpt_ioc_page2.RaidVolume[i].VolumeID); } mpt_prt(mpt, "IOC Page 3 data: %x ", mpt->mpt_ioc_page3.NumPhysDisks); for (i = 0; i < mpt->mpt_ioc_page3.NumPhysDisks; i++) { mpt_prt(mpt, "IOC Page 3 Physical Disk: %x %x %x %x", mpt->mpt_ioc_page3.PhysDisk[i].PhysDiskNum, mpt->mpt_ioc_page3.PhysDisk[i].PhysDiskIOC, mpt->mpt_ioc_page3.PhysDisk[i].PhysDiskBus, mpt->mpt_ioc_page3.PhysDisk[i].PhysDiskID); } mpt_prt(mpt, "IOC Page 4 data: %x %x", mpt->mpt_ioc_page4.MaxSEP, mpt->mpt_ioc_page4.ActiveSEP); for (i = 0; i < mpt->mpt_ioc_page4.MaxSEP; i++) { mpt_prt(mpt, "IOC Page 4 SEP: %x %x", mpt->mpt_ioc_page4.SEP[i].SEPTargetID, mpt->mpt_ioc_page4.SEP[i].SEPBus); } } /* mpt->verbose = 1; */ return (0); } /* * Read RAID Volume pages */ int mpt_read_config_info_raid(struct mpt_softc *mpt) { int rv, i; /* retrieve raid volume headers */ rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_RAID_VOLUME, 0, 0, &mpt->mpt_raidvol_page0.Header); if (rv) { mpt_prt(mpt, "Could not retrieve RAID Volume Page 0 Header"); return (-1); } else if (mpt->verbose > 1) { mpt_print_header(mpt, "RAID Volume Header Page", &mpt->mpt_raidvol_page0.Header); } /* retrieve raid volume page using retrieved headers */ rv = mpt_read_cfg_page(mpt, 0, &mpt->mpt_raidvol_page0.Header); if (rv) { mpt_prt(mpt, "Could not retrieve RAID Volume Page 0"); return (-1); } /* retrieve raid physical disk header */ rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_RAID_PHYSDISK, 0, 0, &mpt->mpt_raidphys_page0.Header); if (rv) { mpt_prt(mpt, "Could not retrieve RAID Phys Disk Page 0 Header"); return (-1); } else if (mpt->verbose > 1) { mpt_print_header(mpt, "RAID Volume Physical Disk Page", &mpt->mpt_raidphys_page0.Header); } /* retrieve raid physical disk page using retrieved headers */ rv = mpt_read_cfg_page(mpt, 0, &mpt->mpt_raidphys_page0.Header); if (rv) { mpt_prt(mpt, "Could not retrieve RAID Phys Disk Page 0"); return (-1); } /* mpt->verbose = 2; */ if (mpt->verbose > 1) { mpt_prt(mpt, "RAID Volume Page 0 data: %x %x %x %x %x" "%x %x %x %x", mpt->mpt_raidvol_page0.VolumeType, mpt->mpt_raidvol_page0.VolumeIOC, mpt->mpt_raidvol_page0.VolumeBus, mpt->mpt_raidvol_page0.VolumeID, mpt->mpt_raidvol_page0.VolumeStatus, mpt->mpt_raidvol_page0.VolumeSettings, mpt->mpt_raidvol_page0.MaxLBA, mpt->mpt_raidvol_page0.StripeSize, mpt->mpt_raidvol_page0.NumPhysDisks); for (i = 0; i < mpt->mpt_raidvol_page0.NumPhysDisks; i++) { mpt_prt(mpt, "RAID Volume Page 0 Physical Disk: %x %x", mpt->mpt_raidvol_page0.PhysDisk[i].PhysDiskNum, mpt->mpt_raidvol_page0.PhysDisk[i].PhysDiskMap); } printf("\n"); } if (mpt->verbose > 1) { mpt_prt(mpt, "RAID Phyical Disk Page 0 data: %x %x %x %x %x" "%x %x %x", mpt->mpt_raidphys_page0.PhysDiskNum, mpt->mpt_raidphys_page0.PhysDiskIOC, mpt->mpt_raidphys_page0.PhysDiskBus, mpt->mpt_raidphys_page0.PhysDiskID, mpt->mpt_raidphys_page0.PhysDiskSettings.SepID, mpt->mpt_raidphys_page0.PhysDiskSettings.SepBus, mpt->mpt_raidphys_page0.PhysDiskSettings.HotSparePool, mpt->mpt_raidphys_page0.PhysDiskSettings.PhysDiskSettings); for (i = 0; i < sizeof(mpt->mpt_raidphys_page0.DiskIdentifier); i++) { printf("%02x ", mpt->mpt_raidphys_page0.DiskIdentifier[i]); } /* does them all */ printf("\n"); mpt_prt(mpt, "RAID Phyical Disk Page 0 data: %s", mpt->mpt_raidphys_page0.InquiryData.VendorID); for (i = 0; i < sizeof(mpt->mpt_raidphys_page0.InquiryData.Info); i++) { printf("%02x ", mpt->mpt_raidphys_page0.InquiryData.Info[i]); } printf("\n"); mpt_prt(mpt, "RAID Phyical Disk Page 0 data: %x %x %x" "%x %x %x %x %x %x %x %x", mpt->mpt_raidphys_page0.PhysDiskStatus.Flags, mpt->mpt_raidphys_page0.PhysDiskStatus.State, mpt->mpt_raidphys_page0.MaxLBA, mpt->mpt_raidphys_page0.ErrorData.ErrorSenseKey, mpt->mpt_raidphys_page0.ErrorData.ErrorCdbByte, mpt->mpt_raidphys_page0.ErrorData.ErrorASCQ, mpt->mpt_raidphys_page0.ErrorData.ErrorASC, mpt->mpt_raidphys_page0.ErrorData.ErrorCount, mpt->mpt_raidphys_page0.ErrorData.SmartASCQ, mpt->mpt_raidphys_page0.ErrorData.SmartASC, mpt->mpt_raidphys_page0.ErrorData.SmartCount ); } /* mpt->verbose = 1; */ return (0); } /* * Read SCSI configuration information */ int mpt_read_config_info_spi(struct mpt_softc *mpt) { int rv, i; rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_SCSI_PORT, 0, 0, &mpt->mpt_port_page0.Header); if (rv) { return (-1); } if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Port Page 0 Header: %x %x %x %x", mpt->mpt_port_page0.Header.PageVersion, mpt->mpt_port_page0.Header.PageLength, mpt->mpt_port_page0.Header.PageNumber, mpt->mpt_port_page0.Header.PageType); } rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_SCSI_PORT, 1, 0, &mpt->mpt_port_page1.Header); if (rv) { return (-1); } if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Port Page 1 Header: %x %x %x %x", mpt->mpt_port_page1.Header.PageVersion, mpt->mpt_port_page1.Header.PageLength, mpt->mpt_port_page1.Header.PageNumber, mpt->mpt_port_page1.Header.PageType); } rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_SCSI_PORT, 2, 0, &mpt->mpt_port_page2.Header); if (rv) { return (-1); } if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Port Page 2 Header: %x %x %x %x", mpt->mpt_port_page1.Header.PageVersion, mpt->mpt_port_page1.Header.PageLength, mpt->mpt_port_page1.Header.PageNumber, mpt->mpt_port_page1.Header.PageType); } for (i = 0; i < 16; i++) { rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_SCSI_DEVICE, 0, i, &mpt->mpt_dev_page0[i].Header); if (rv) { return (-1); } if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Target %d Device Page 0 Header: %x %x %x %x", i, mpt->mpt_dev_page0[i].Header.PageVersion, mpt->mpt_dev_page0[i].Header.PageLength, mpt->mpt_dev_page0[i].Header.PageNumber, mpt->mpt_dev_page0[i].Header.PageType); } rv = mpt_read_cfg_header(mpt, MPI_CONFIG_PAGETYPE_SCSI_DEVICE, 1, i, &mpt->mpt_dev_page1[i].Header); if (rv) { return (-1); } if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Target %d Device Page 1 Header: %x %x %x %x", i, mpt->mpt_dev_page1[i].Header.PageVersion, mpt->mpt_dev_page1[i].Header.PageLength, mpt->mpt_dev_page1[i].Header.PageNumber, mpt->mpt_dev_page1[i].Header.PageType); } } /* * At this point, we don't *have* to fail. As long as we have * valid config header information, we can (barely) lurch * along. */ rv = mpt_read_cfg_page(mpt, 0, &mpt->mpt_port_page0.Header); if (rv) { mpt_prt(mpt, "failed to read SPI Port Page 0"); } else if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Port Page 0: Capabilities %x PhysicalInterface %x", mpt->mpt_port_page0.Capabilities, mpt->mpt_port_page0.PhysicalInterface); } rv = mpt_read_cfg_page(mpt, 0, &mpt->mpt_port_page1.Header); if (rv) { mpt_prt(mpt, "failed to read SPI Port Page 1"); } else if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Port Page 1: Configuration %x OnBusTimerValue %x", mpt->mpt_port_page1.Configuration, mpt->mpt_port_page1.OnBusTimerValue); } rv = mpt_read_cfg_page(mpt, 0, &mpt->mpt_port_page2.Header); if (rv) { mpt_prt(mpt, "failed to read SPI Port Page 2"); } else if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Port Page 2: Flags %x Settings %x", mpt->mpt_port_page2.PortFlags, mpt->mpt_port_page2.PortSettings); for (i = 0; i < 16; i++) { mpt_prt(mpt, "SPI Port Page 2 Tgt %d: timo %x SF %x Flags %x", i, mpt->mpt_port_page2.DeviceSettings[i].Timeout, mpt->mpt_port_page2.DeviceSettings[i].SyncFactor, mpt->mpt_port_page2.DeviceSettings[i].DeviceFlags); } } for (i = 0; i < 16; i++) { rv = mpt_read_cfg_page(mpt, i, &mpt->mpt_dev_page0[i].Header); if (rv) { mpt_prt(mpt, "cannot read SPI Tgt %d Device Page 0", i); continue; } if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Tgt %d Page 0: NParms %x Information %x", i, mpt->mpt_dev_page0[i].NegotiatedParameters, mpt->mpt_dev_page0[i].Information); } rv = mpt_read_cfg_page(mpt, i, &mpt->mpt_dev_page1[i].Header); if (rv) { mpt_prt(mpt, "cannot read SPI Tgt %d Device Page 1", i); continue; } if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Tgt %d Page 1: RParms %x Configuration %x", i, mpt->mpt_dev_page1[i].RequestedParameters, mpt->mpt_dev_page1[i].Configuration); } } return (0); } /* * Validate SPI configuration information. * * In particular, validate SPI Port Page 1. */ int mpt_set_initial_config_spi(struct mpt_softc *mpt) { int i, pp1val = ((1 << mpt->mpt_ini_id) << 16) | mpt->mpt_ini_id; mpt->mpt_disc_enable = 0xff; mpt->mpt_tag_enable = 0; if (mpt->mpt_port_page1.Configuration != pp1val) { CONFIG_PAGE_SCSI_PORT_1 tmp; mpt_prt(mpt, "SPI Port Page 1 Config value bad (%x)- should be %x", mpt->mpt_port_page1.Configuration, pp1val); tmp = mpt->mpt_port_page1; tmp.Configuration = pp1val; if (mpt_write_cfg_page(mpt, 0, &tmp.Header)) { return (-1); } if (mpt_read_cfg_page(mpt, 0, &tmp.Header)) { return (-1); } if (tmp.Configuration != pp1val) { mpt_prt(mpt, "failed to reset SPI Port Page 1 Config value"); return (-1); } mpt->mpt_port_page1 = tmp; } for (i = 0; i < 16; i++) { CONFIG_PAGE_SCSI_DEVICE_1 tmp; tmp = mpt->mpt_dev_page1[i]; tmp.RequestedParameters = 0; tmp.Configuration = 0; if (mpt->verbose > 1) { mpt_prt(mpt, "Set Tgt %d SPI DevicePage 1 values to %x 0 %x", i, tmp.RequestedParameters, tmp.Configuration); } if (mpt_write_cfg_page(mpt, i, &tmp.Header)) { return (-1); } if (mpt_read_cfg_page(mpt, i, &tmp.Header)) { return (-1); } mpt->mpt_dev_page1[i] = tmp; if (mpt->verbose > 1) { mpt_prt(mpt, "SPI Tgt %d Page 1: RParm %x Configuration %x", i, mpt->mpt_dev_page1[i].RequestedParameters, mpt->mpt_dev_page1[i].Configuration); } } return (0); } /* * Enable IOC port */ int mpt_send_port_enable(struct mpt_softc *mpt, int port) { int count; struct req_entry *req; MSG_PORT_ENABLE *enable_req; req = mpt_get_request(mpt); enable_req = req->req_vbuf; bzero(enable_req, sizeof *enable_req); enable_req->Function = MPI_FUNCTION_PORT_ENABLE; enable_req->MsgContext = req->index | 0x80000000; enable_req->PortNumber = port; mpt_check_doorbell(mpt); if (mpt->verbose > 1) { mpt_prt(mpt, "enabling port %d", port); } mpt_send_cmd(mpt, req); count = 0; do { DELAY(500); mpt_intr(mpt); if (++count == 100000) { mpt_prt(mpt, "port enable timed out"); return (-1); } } while (req->debug == REQ_ON_CHIP); mpt_free_request(mpt, req); return (0); } /* * Enable/Disable asynchronous event reporting. * * NB: this is the first command we send via shared memory * instead of the handshake register. */ int mpt_send_event_request(struct mpt_softc *mpt, int onoff) { struct req_entry *req; MSG_EVENT_NOTIFY *enable_req; req = mpt_get_request(mpt); enable_req = req->req_vbuf; bzero(enable_req, sizeof *enable_req); enable_req->Function = MPI_FUNCTION_EVENT_NOTIFICATION; enable_req->MsgContext = req->index | 0x80000000; enable_req->Switch = onoff; mpt_check_doorbell(mpt); if (mpt->verbose > 1) { mpt_prt(mpt, "%sabling async events", onoff? "en" : "dis"); } mpt_send_cmd(mpt, req); return (0); } /* * Un-mask the interrupts on the chip. */ void mpt_enable_ints(struct mpt_softc *mpt) { /* Unmask every thing except door bell int */ mpt_write(mpt, MPT_OFFSET_INTR_MASK, MPT_INTR_DB_MASK); } /* * Mask the interrupts on the chip. */ void mpt_disable_ints(struct mpt_softc *mpt) { /* Mask all interrupts */ mpt_write(mpt, MPT_OFFSET_INTR_MASK, MPT_INTR_REPLY_MASK | MPT_INTR_DB_MASK); } /* (Re)Initialize the chip for use */ int mpt_init(struct mpt_softc *mpt, u_int32_t who) { int try; MSG_IOC_FACTS_REPLY facts; MSG_PORT_FACTS_REPLY pfp; u_int32_t pptr; int val; /* Put all request buffers (back) on the free list */ SLIST_INIT(&mpt->request_free_list); for (val = 0; val < MPT_MAX_REQUESTS(mpt); val++) { mpt_init_request(mpt, &mpt->request_pool[val]); } if (mpt->verbose > 1) { mpt_prt(mpt, "doorbell req = %s", mpt_ioc_diag(mpt_read(mpt, MPT_OFFSET_DOORBELL))); } /* * Start by making sure we're not at FAULT or RESET state */ switch (mpt_rd_db(mpt) & MPT_DB_STATE_MASK) { case MPT_DB_STATE_RESET: case MPT_DB_STATE_FAULT: if (mpt_reset(mpt) != MPT_OK) { return (EIO); } default: break; } for (try = 0; try < MPT_MAX_TRYS; try++) { /* * No need to reset if the IOC is already in the READY state. * * Force reset if initialization failed previously. * Note that a hard_reset of the second channel of a '929 * will stop operation of the first channel. Hopefully, if the * first channel is ok, the second will not require a hard * reset. */ if ((mpt_rd_db(mpt) & MPT_DB_STATE_MASK) != MPT_DB_STATE_READY) { if (mpt_reset(mpt) != MPT_OK) { DELAY(10000); continue; } } if (mpt_get_iocfacts(mpt, &facts) != MPT_OK) { mpt_prt(mpt, "mpt_get_iocfacts failed"); continue; } if (mpt->verbose > 1) { mpt_prt(mpt, "IOCFACTS: GlobalCredits=%d BlockSize=%u " "Request Frame Size %u", facts.GlobalCredits, facts.BlockSize, facts.RequestFrameSize); } mpt->mpt_global_credits = facts.GlobalCredits; mpt->request_frame_size = facts.RequestFrameSize; /* save the firmware upload required flag */ mpt->fw_download_boot = facts.Flags & MPI_IOCFACTS_FLAGS_FW_DOWNLOAD_BOOT; mpt->fw_image_size = facts.FWImageSize; if (mpt_get_portfacts(mpt, &pfp) != MPT_OK) { mpt_prt(mpt, "mpt_get_portfacts failed"); continue; } if (mpt->verbose > 1) { mpt_prt(mpt, "PORTFACTS: Type %x PFlags %x IID %d MaxDev %d", pfp.PortType, pfp.ProtocolFlags, pfp.PortSCSIID, pfp.MaxDevices); } if (pfp.PortType != MPI_PORTFACTS_PORTTYPE_SCSI && pfp.PortType != MPI_PORTFACTS_PORTTYPE_FC) { mpt_prt(mpt, "Unsupported Port Type (%x)", pfp.PortType); return (ENXIO); } if (!(pfp.ProtocolFlags & MPI_PORTFACTS_PROTOCOL_INITIATOR)) { mpt_prt(mpt, "initiator role unsupported"); return (ENXIO); } if (pfp.PortType == MPI_PORTFACTS_PORTTYPE_FC) { mpt->is_fc = 1; } else { mpt->is_fc = 0; } mpt->mpt_ini_id = pfp.PortSCSIID; if (mpt_send_ioc_init(mpt, who) != MPT_OK) { mpt_prt(mpt, "mpt_send_ioc_init failed"); continue; } if (mpt->verbose > 1) { mpt_prt(mpt, "mpt_send_ioc_init ok"); } if (mpt_wait_state(mpt, MPT_DB_STATE_RUNNING) != MPT_OK) { mpt_prt(mpt, "IOC failed to go to run state"); continue; } if (mpt->verbose > 1) { mpt_prt(mpt, "IOC now at RUNSTATE"); } /* * Give it reply buffers * * Do *not* exceed global credits. */ for (val = 0, pptr = mpt->reply_phys; (pptr + MPT_REPLY_SIZE) < (mpt->reply_phys + PAGE_SIZE); pptr += MPT_REPLY_SIZE) { mpt_free_reply(mpt, pptr); if (++val == mpt->mpt_global_credits - 1) break; } /* XXX MU correct place the call to fw_upload? */ if (mpt->upload_fw) { if (mpt->verbose > 1) { mpt_prt(mpt, "firmware upload required."); } if (mpt_do_upload(mpt)) { /* XXX MP should we panic? */ mpt_prt(mpt, "firmware upload failure!"); } /* continue; */ } else { if (mpt->verbose > 1) { mpt_prt(mpt, "firmware upload not required."); } } /* * Enable asynchronous event reporting */ mpt_send_event_request(mpt, 1); /* * Read set up initial configuration information * (SPI only for now) */ if (mpt->is_fc == 0) { if (mpt_read_config_info_spi(mpt)) { return (EIO); } if (mpt_set_initial_config_spi(mpt)) { return (EIO); } } /* * Read IO Unit pages */ if (mpt_read_config_info_iou(mpt)) { mpt_prt(mpt, "could not retrieve IO Unit pages"); return (EIO); } /* * if the vmware flag is set skip page retrival since it does * not support all of them. */ if (mpt->vmware) { if (mpt->verbose > 1) mpt_prt(mpt, "running in vmware, skipping page" "retrieval"); } else { /* * Read manufacturing pages */ if (mpt_read_config_info_mfg(mpt)) { mpt_prt(mpt, "could not retrieve manufacturing" "pages"); return (EIO); } /* * Read IOC pages */ if (mpt_read_config_info_ioc(mpt)) { mpt_prt(mpt, "could not retrieve IOC pages"); return (EIO); } mpt->im_support = mpt->mpt_ioc_page2.CapabilitiesFlags & (MPI_IOCPAGE2_CAP_FLAGS_IS_SUPPORT | MPI_IOCPAGE2_CAP_FLAGS_IME_SUPPORT | MPI_IOCPAGE2_CAP_FLAGS_IM_SUPPORT); /* * Read RAID pages if we have IM/IME/IS volumes */ if (mpt->mpt_ioc_page2.NumActiveVolumes) { if (mpt_read_config_info_raid(mpt)) { mpt_prt(mpt, "could not retrieve RAID" "pages"); return (EIO); } } } /* * Now enable the port */ if (mpt_send_port_enable(mpt, 0) != MPT_OK) { mpt_prt(mpt, "failed to enable port 0"); continue; } if (mpt->verbose > 1) { mpt_prt(mpt, "enabled port 0"); } /* Everything worked */ break; } if (try >= MPT_MAX_TRYS) { mpt_prt(mpt, "failed to initialize IOC"); return (EIO); } if (mpt->verbose > 1) { mpt_prt(mpt, "enabling interrupts"); } mpt_enable_ints(mpt); return (0); } /* * mpt_do_upload - create and send FWUpload request to MPT adapter port. * * Returns 0 for success, error for failure */ int mpt_do_upload(struct mpt_softc *mpt) { u_int8_t request[MPT_RQSL(mpt)]; FWUploadReply_t reply; FWUpload_t *prequest; FWUploadReply_t *preply; FWUploadTCSGE_t *ptcsge = NULL; SGE_SIMPLE32 *se; int maxsgl; int sgeoffset; int i, error; uint32_t flags; if (mpt->fw_image_size == 0 || mpt->fw != NULL) { return 0; } /* compute the maximum number of elements in the SG list */ maxsgl = (MPT_RQSL(mpt) - sizeof(MSG_FW_UPLOAD) + sizeof(SGE_MPI_UNION) - sizeof(FWUploadTCSGE_t)) / sizeof(SGE_SIMPLE32); error = mpt_alloc_fw_mem(mpt, maxsgl); if (error) { mpt_prt(mpt,"mpt_alloc_fw_mem error: %d", error); return error; } if (mpt->fw_dmap->dm_nsegs > maxsgl) { mpt_prt(mpt,"nsegs > maxsgl"); return 1; /* XXX */ } prequest = (FWUpload_t *)&request; preply = (FWUploadReply_t *)&reply; memset(prequest, 0, MPT_RQSL(mpt)); memset(preply, 0, sizeof(reply)); prequest->ImageType = MPI_FW_UPLOAD_ITYPE_FW_IOC_MEM; prequest->Function = MPI_FUNCTION_FW_UPLOAD; prequest->MsgContext = 0; ptcsge = (FWUploadTCSGE_t *) &prequest->SGL; ptcsge->Reserved = 0; ptcsge->ContextSize = 0; ptcsge->DetailsLength = 12; ptcsge->Flags = MPI_SGE_FLAGS_TRANSACTION_ELEMENT; ptcsge->Reserved1 = 0; ptcsge->ImageOffset = 0; ptcsge->ImageSize = mpt->fw_image_size; /* XXX MU check endianess */ sgeoffset = sizeof(FWUpload_t) - sizeof(SGE_MPI_UNION) + sizeof(FWUploadTCSGE_t); se = (SGE_SIMPLE32 *) &request[sgeoffset]; flags = MPI_SGE_FLAGS_SIMPLE_ELEMENT; if (mpt->verbose > 1) { mpt_prt(mpt, "assembling SG list (%d entries)", mpt->fw_dmap->dm_nsegs); } for (i = 0; i < mpt->fw_dmap->dm_nsegs; i++, se++) { if (i == mpt->fw_dmap->dm_nsegs - 1) { /* XXX MU okay? */ flags |= MPI_SGE_FLAGS_LAST_ELEMENT | MPI_SGE_FLAGS_END_OF_BUFFER | MPI_SGE_FLAGS_END_OF_LIST; } se->Address = mpt->fw_dmap->dm_segs[i].ds_addr; MPI_pSGE_SET_LENGTH(se, mpt->fw_dmap->dm_segs[i].ds_len); MPI_pSGE_SET_FLAGS(se, flags); sgeoffset += sizeof(*se); } mpt_prt(mpt, "sending FW Upload request to IOC (size: %d, " "img size: %d)", sgeoffset, mpt->fw_image_size); if ((error = mpt_send_handshake_cmd(mpt, sgeoffset, prequest)) != 0) { return(error); } error = mpt_recv_handshake_reply(mpt, sizeof(reply), &reply); if (error == 0) { /* * Handshake transfer was complete and successfull. * Check the Reply Frame */ int status, transfer_sz; status = preply->IOCStatus; if (mpt->verbose > 1) { mpt_prt(mpt, "fw_upload reply status %d", status); } if (status == MPI_IOCSTATUS_SUCCESS) { transfer_sz = preply->ActualImageSize; if (transfer_sz != mpt->fw_image_size) error = EFAULT; } else { error = EFAULT; } } if (error == 0) { mpt->upload_fw = 0; } else { mpt_prt(mpt, "freeing image memory"); mpt_free_fw_mem(mpt); mpt->fw = NULL; } return error; } /* * mpt_downloadboot - DownloadBoot code * Returns 0 for success, <0 for failure */ int mpt_downloadboot(struct mpt_softc *mpt) { MpiFwHeader_t *fwhdr = NULL; MpiExtImageHeader_t *exthdr = NULL; int fw_size; u_int32_t diag0; #if MPT_DEBUG u_int32_t diag1; #endif int count = 0; u_int32_t *ptr = NULL; u_int32_t nextimg; u_int32_t load_addr; u_int32_t diagrw_data; #ifdef MPT_DEBUG diag0 = mpt_read(mpt, MPT_OFFSET_DIAGNOSTIC); if (mpt->mpt2) diag1 = mpt_read(mpt->mpt2, MPT_OFFSET_DIAGNOSTIC); mpt_prt(mpt, "diag0=%08x, diag1=%08x", diag0, diag1); #endif mpt_prt(mpt, "fw size 0x%x, ioc FW ptr %p", mpt->fw_image_size, mpt->fw); if (mpt->mpt2) mpt_prt(mpt->mpt2, "ioc FW ptr %p", mpt->mpt2->fw); fw_size = mpt->fw_image_size; if (fw_size == 0) return -1; mpt_prt(mpt, "FW Image @ %p", mpt->fw); if (!mpt->fw) return -2; /* * Write magic sequence to WriteSequence register * until enter diagnostic mode */ diag0 = mpt_read(mpt, MPT_OFFSET_DIAGNOSTIC); while ((diag0 & MPI_DIAG_DRWE) == 0) { mpt_write(mpt, MPT_OFFSET_SEQUENCE, 0xFF); mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_1); mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_2); mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_3); mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_4); mpt_write(mpt, MPT_OFFSET_SEQUENCE, MPT_DIAG_SEQUENCE_5); /* wait 100msec */ DELAY(100); count++; if (count > 20) { mpt_prt(mpt, "enable diagnostic mode FAILED! (%02xh)", diag0); return -EFAULT; } diag0 = mpt_read(mpt, MPT_OFFSET_DIAGNOSTIC); #ifdef MPT_DEBUG if (mpt->mpt2) diag1 = mpt_read(mpt->mpt2, MPT_OFFSET_DIAGNOSTIC); mpt_prt(mpt, "diag0=%08x, diag1=%08x", diag0, diag1); #endif mpt_prt(mpt, "wrote magic DiagWriteEn sequence (%x)", diag0); } /* Set the DiagRwEn and Disable ARM bits */ diag0 |= (MPI_DIAG_RW_ENABLE | MPI_DIAG_DISABLE_ARM); mpt_write(mpt, MPT_OFFSET_DIAGNOSTIC, diag0); #ifdef MPT_DEBUG if (mpt->mpt2) diag1 = mpt_read(mpt->mpt2, MPT_OFFSET_DIAGNOSTIC); mpt_prt(mpt, "diag0=%08x, diag1=%08x", diag0, diag1); #endif fwhdr = (MpiFwHeader_t *) mpt->fw; ptr = (u_int32_t *) fwhdr; count = (fwhdr->ImageSize + 3)/4; nextimg = fwhdr->NextImageHeaderOffset; /* * write the LoadStartAddress to the DiagRw Address Register * XXX linux is using programmed IO for the RWADDR and RWDATA */ mpt_write(mpt, MPT_OFFSET_RWADDR, fwhdr->LoadStartAddress); mpt_prt(mpt, "LoadStart addr written 0x%x", fwhdr->LoadStartAddress); mpt_prt(mpt, "writing file image: 0x%x u32's @ %p", count, ptr); while (count--) { mpt_write(mpt, MPT_OFFSET_RWDATA, *ptr); ptr++; } while (nextimg) { ptr = (u_int32_t *) (mpt->fw + nextimg); exthdr = (MpiExtImageHeader_t *) ptr; count = (exthdr->ImageSize +3)/4; nextimg = exthdr->NextImageHeaderOffset; load_addr = exthdr->LoadStartAddress; mpt_prt(mpt, "write ext image: 0x%x u32's @ %p", count, ptr); mpt_write(mpt, MPT_OFFSET_RWADDR, load_addr); while (count--) { mpt_write(mpt, MPT_OFFSET_RWDATA, *ptr); ptr++; } } /* write the IopResetVectorRegAddr */ mpt_prt(mpt, "write IopResetVector addr!"); mpt_write(mpt, MPT_OFFSET_RWADDR, fwhdr->IopResetRegAddr); /* write the IopResetVectorValue */ mpt_prt(mpt, "write IopResetVector value!"); mpt_write(mpt, MPT_OFFSET_RWDATA, fwhdr->IopResetVectorValue); /* * clear the internal flash bad bit - autoincrementing register, * so must do two writes. */ mpt_write(mpt, MPT_OFFSET_RWADDR, 0x3F000000); diagrw_data = mpt_read(mpt, MPT_OFFSET_RWDATA); diagrw_data |= 0x4000000; mpt_write(mpt, MPT_OFFSET_RWADDR, 0x3F000000); mpt_write(mpt, MPT_OFFSET_RWDATA, diagrw_data); /* clear the RW enable and DISARM bits */ diag0 = mpt_read(mpt, MPT_OFFSET_DIAGNOSTIC); diag0 &= ~(MPI_DIAG_DISABLE_ARM | MPI_DIAG_RW_ENABLE | MPI_DIAG_FLASH_BAD_SIG); mpt_write(mpt, MPT_OFFSET_DIAGNOSTIC, diag0); /* write 0xFF to reset the sequencer */ mpt_write(mpt, MPT_OFFSET_SEQUENCE, 0xFF); return 0; }