/* * Copyright (c) 1995 Andrew McRae. 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. Redistributions in binary form must reproduce the above copyright * notice, this list of conditions and the following disclaimer in the * documentation and/or other materials provided with the distribution. * 3. 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. */ #ifndef lint static const char rcsid[] = "$FreeBSD$"; #endif /* not lint */ #include #include #include #include #include #include #include #include #include #include #include #include "cardd.h" static struct card_config *assign_driver(struct slot *, struct card *); static int assign_io(struct slot *); static int setup_slot(struct slot *); static void card_inserted(struct slot *); static void card_removed(struct slot *); static void pr_cmd(struct cmd *); static void read_ether(struct slot *); static void read_ether_attr2(struct slot *sp); struct slot *slots; /* * Dump configuration file data. */ void dump_config_file(void) { struct card *cp; struct card_config *confp; for (cp = cards; cp; cp = cp->next) { printf("Card manuf %s, vers %s\n", cp->manuf, cp->version); printf("Configuration entries:\n"); for (confp = cp->config; confp; confp = confp->next) { printf("\tIndex code = "); switch (confp->index_type) { case DEFAULT_INDEX: printf("default"); break; case AUTO_INDEX: printf("auto"); break; default: printf("0x%x", confp->index); break; } printf(", driver name = %s\n", confp->driver->name); } if (cp->insert) { printf("Insert commands are:\n"); pr_cmd(cp->insert); } if (cp->remove) { printf("Remove commands are:\n"); pr_cmd(cp->remove); } } fflush(stdout); } static void pr_cmd(struct cmd *cp) { while (cp) { printf("\t%s\n", cp->line); cp = cp->next; } } /* * readslots - read all the PCMCIA slots, and build * a list of the slots. */ struct slot * readslots(void) { char name[128]; int i, fd; struct slot *sp; slots = NULL; for (i = 0; i < MAXSLOT; i++) { sprintf(name, CARD_DEVICE, i); fd = open(name, O_RDWR); if (fd < 0) continue; sp = xmalloc(sizeof(*sp)); sp->fd = fd; sp->name = newstr(name); sp->slot = i; /* Check to see if the controller memory has been set up. */ if (slots == 0) { unsigned long mem = 0; if (ioctl(fd, PIOCRWMEM, &mem)) logerr("ioctl (PIOCRWMEM)"); #ifdef DEBUG logmsg("mem=0x%x\n", mem); #endif if (mem == 0) { mem = alloc_memory(4 * 1024); if (mem == 0) die("can't allocate memory for " "controller access"); if (ioctl(fd, PIOCRWMEM, &mem)) logerr("ioctl (PIOCRWMEM)"); } } sp->next = slots; slots = sp; slot_change(sp); } return (slots); } /* * slot_change - Card status has changed. * read new state and process. */ void slot_change(struct slot *sp) { struct slotstate state; if (ioctl(sp->fd, PIOCGSTATE, &state)) { logerr("ioctl (PIOCGSTATE)"); return; } switch (state.state) { case empty: case inactive: case noslot: /* Debounce potentially incorrectly reported removals */ if (state.laststate == filled || state.laststate == suspend) card_removed(sp); break; case filled: /* KLUDGE: if we were suspended, remove card */ if (state.laststate == suspend) card_removed(sp); card_inserted(sp); break; case suspend: /* ignored */ break; } sp->state = state.state; stat_changed(sp); } /* * card_removed - card has been removed from slot. * Execute the remove commands, and clear the slot's state. * Execute the device commands, then the driver commands * and then the card commands. This is the reverse * order to the insertion commands */ void card_removed(struct slot *sp) { struct card *cp; struct allocblk *sio; int in_use = 0; if (sp->config && sp->config->driver && sp->card) logmsg("%s%d: %s removed.", sp->config->driver->kernel, sp->config->driver->unit, sp->card->logstr); if (sp->cis) freecis(sp->cis); if (sp->config) { if (sp->config->inuse && sp->config->driver->inuse) in_use = 1; sp->config->inuse = 0; sp->config->driver->inuse = 0; } if ((cp = sp->card) != 0 && in_use) execute(cp->remove, sp); sp->cis = 0; sp->config = 0; /* release io */ if (sp->flags & IO_ASSIGNED) for (sio = &sp->io; sio; sio = sio->next) if (sio->addr && sio->size) bit_nset(io_avail, sio->addr, sio->addr + sio->size - 1); /* release irq */ if (sp->flags & IRQ_ASSIGNED) if (sp->irq >= 1 && sp->irq <= 15) pool_irq[sp->irq] = 1; } /* CIS string comparison */ #define REGCOMP_FLAGS (REG_EXTENDED | REG_NOSUB) #define REGEXEC_FLAGS (0) static int cis_strcmp(char *db, char *cis) { int res, err; char buf[256]; regex_t rx; char * p; size_t n; if (!db || !cis) { return -1; } n = strlen(db); if (n > 2 && db[0] == '/' && db[n-1] == '/') { /* matching by regex */ db++; } else { /* otherwise, matching by strncmp() */ if (n != strlen(cis)) { return -1; } return strncmp(db, cis, n); } p = xmalloc(n); strncpy(p + 1, db, n-2); *p = '^'; db = p; if ((err = regcomp(&rx, p, REGCOMP_FLAGS))) { regerror(err, &rx, buf, sizeof buf); logmsg("Warning: REGEX error for\"%s\" -- %s\n", p, buf); regfree(&rx); free(p); return -1; } res = regexec(&rx, cis, 0, NULL, REGEXEC_FLAGS); regfree(&rx); free(p); return res; } /* * card_inserted - Card has been inserted; * - Read the CIS * - match the card type. * - Match the driver and allocate a driver instance. * - Allocate I/O ports, memory and IRQ. * - Set up the slot. * - assign the driver (if failed, then terminate). * - Run the card commands. * - Run the driver commands * - Run the device commands */ void card_inserted(struct slot *sp) { struct card *cp; int err; usleep(pccard_init_sleep); sp->cis = readcis(sp->fd); if (sp->cis == 0) { logmsg("Error reading CIS on %s\n", sp->name); return; } #if 0 dumpcis(sp->cis); #endif for (cp = cards; cp; cp = cp->next) { switch (cp->deftype) { case DT_VERS: if (cis_strcmp(cp->manuf, sp->cis->manuf) == 0 && cis_strcmp(cp->version, sp->cis->vers) == 0) { if (cp->add_info1 != NULL && cis_strcmp(cp->add_info1, sp->cis->add_info1) != 0) { break; } if (cp->add_info2 != NULL && cis_strcmp(cp->add_info2, sp->cis->add_info2) != 0) { break; } logmsg("Card \"%s\"(\"%s\") " "[%s] [%s] " "matched \"%s\" (\"%s\") " "[%s] [%s] ", sp->cis->manuf, sp->cis->vers, sp->cis->add_info1, sp->cis->add_info2, cp->manuf, cp->version, cp->add_info1, cp->add_info2); goto escape; } break; case DT_FUNC: if (cp->func_id == sp->cis->func_id1) { logmsg("Card \"%s\"(\"%s\") " "[%s] [%s] " "has function ID %d\n", sp->cis->manuf, sp->cis->vers, sp->cis->add_info1, sp->cis->add_info2, cp->func_id); goto escape; } break; default: logmsg("Unknown deftype %d\n", cp->deftype); die("cardd.c:card_inserted()"); } } escape: sp->card = cp; #if 0 reset_slot(sp); #endif if (cp == 0) { logmsg("No card in database for \"%s\"(\"%s\")", sp->cis->manuf, sp->cis->vers); return; } /* * Copy CIS_MANUF_ID and CIS_FUNC_EXT from "struct cis" * to "struct slot" */ if (sp->cis->lan_nid && sp->cis->lan_nid[0] == sizeof(sp->eaddr)) { bcopy(sp->cis->lan_nid + 1, sp->eaddr, sizeof(sp->eaddr)); sp->flags |= EADDR_CONFIGED; } else { bzero(sp->eaddr, sizeof(sp->eaddr)); } if (sp->cis->manufacturer && sp->cis->product) { sp->manufacturer = sp->cis->manufacturer; sp->product = sp->cis->product; sp->prodext = sp->cis->prodext; /* For xe driver */ } else { sp->manufacturer = 0; sp->product = 0; sp->prodext = 0; } if (sp->cis->manuf) strlcpy(sp->manufstr, sp->cis->manuf, sizeof(sp->manufstr)); if (sp->cis->vers) strlcpy(sp->versstr, sp->cis->vers, sizeof(sp->versstr)); if (sp->cis->add_info1) strlcpy(sp->cis3str, sp->cis->add_info1, sizeof(sp->cis3str)); if (sp->cis->add_info2) strlcpy(sp->cis4str, sp->cis->add_info2, sizeof(sp->cis4str)); if (cp->ether) { struct ether *e = 0; e = cp->ether; switch (e->type) { case ETHTYPE_ATTR2: read_ether_attr2(sp); break; default: read_ether(sp); break; } } if ((sp->config = assign_driver(sp, cp)) == NULL) return; if ((err = assign_io(sp))) { char *reason; switch (err) { case -1: reason = "specified CIS was not found"; break; case -2: reason = "memory block allocation failed"; break; case -3: reason = "I/O block allocation failed"; break; case -4: reason = "requires more than one memory window"; break; default: reason = "Unknown"; break; } logmsg("Resource allocation failure for \"%s\"(\"%s\") " "[%s] [%s]; Reason %s\n", sp->cis->manuf, sp->cis->vers, sp->cis->add_info1, sp->cis->add_info2, reason); return; } /* * * Once assigned, set up the I/O & mem contexts, set up the * windows, and then attach the driver. */ if (setup_slot(sp)) execute(cp->insert, sp); #if 0 else reset_slot(sp); #endif } /* * read_ether - read ethernet address from card. Offset is * the offset into the attribute memory of the card. */ static void read_ether(struct slot *sp) { unsigned char net_addr[12]; int flags = MDF_ATTR; /* attribute memory */ ioctl(sp->fd, PIOCRWFLAG, &flags); lseek(sp->fd, (off_t)sp->card->ether->value, SEEK_SET); if (read(sp->fd, net_addr, sizeof(net_addr)) != sizeof(net_addr)) { logerr("read err on net addr"); return; } sp->eaddr[0] = net_addr[0]; sp->eaddr[1] = net_addr[2]; sp->eaddr[2] = net_addr[4]; sp->eaddr[3] = net_addr[6]; sp->eaddr[4] = net_addr[8]; sp->eaddr[5] = net_addr[10]; logmsg("Ether=%02x:%02x:%02x:%02x:%02x:%02x\n", sp->eaddr[0], sp->eaddr[1], sp->eaddr[2], sp->eaddr[3], sp->eaddr[4], sp->eaddr[5]); sp->flags |= EADDR_CONFIGED; } /* * Megahertz X-Jack Ethernet uses unique way to get/set MAC * address of the card. */ static void read_ether_attr2(struct slot *sp) { int i; char *hexaddr; hexaddr = sp->cis->add_info2; for (i = 0; i < 6; i++) sp->eaddr[i] = 0; if (!hexaddr) return; if (strlen(hexaddr) != 12) return; for (i = 0; i < 12; i++) if (!isxdigit(hexaddr[i])) return; for (i = 0; i < 6; i++) { u_int d; char s[3]; s[0] = hexaddr[i * 2]; s[1] = hexaddr[i * 2 + 1]; s[2] = '\0'; if (!sscanf(s, "%x", &d)) { int j; for (j = 0; j < 6; j++) sp->eaddr[j] = 0; return; } sp->eaddr[i] = (u_char)d; } sp->flags |= EADDR_CONFIGED; } /* * assign_driver - Assign driver to card. * First, see if an existing driver is already setup. */ static struct card_config * assign_driver(struct slot *sp, struct card *cp) { struct driver *drvp; struct card_config *conf; struct pccard_resource res; int i; int irqmin, irqmax; for (conf = cp->config; conf; conf = conf->next) if (conf->inuse == 0 && conf->driver->card == cp && conf->driver->config == conf && conf->driver->inuse == 0) { if (debug_level > 0) { logmsg("Found existing driver (%s) for %s\n", conf->driver->name, cp->manuf); } conf->driver->inuse = 1; conf->inuse = 1; return (conf); } /* * New driver must be allocated. Find the first configuration * not in use. */ for (conf = cp->config; conf; conf = conf->next) if (conf->inuse == 0 && conf->driver->inuse/*card*/ == 0) break; if (conf == 0) { logmsg("No free configuration for card %s", cp->manuf); return (NULL); } /* * Now we have a free driver and a matching configuration. * Before assigning and allocating everything, check to * see if a device class can be allocated to this. */ drvp = conf->driver; /* If none available, then we can't use this card. */ if (drvp->inuse) { logmsg("Driver already being used for %s", cp->manuf); return (NULL); } /* * Allocate a free IRQ if none has been specified. When we're * sharing interrupts (cardbus bridge case), then we'll use what * the kernel tells us to use, reguardless of what the user * configured. Asking the kernel for IRQ 0 is our way of asking * if we should use a shared interrupt. */ res.type = SYS_RES_IRQ; res.size = 1; if (conf->irq == 0) { irqmin = 1; irqmax = 15; } else { irqmin = irqmax = conf->irq; conf->irq = 0; /* Make sure we get it. */ } res.min = 0; res.max = 0; if (ioctl(sp->fd, PIOCSRESOURCE, &res) < 0) err(1, "ioctl (PIOCSRESOURCE)"); if (res.resource_addr != ~0ul) { conf->irq = res.resource_addr; pool_irq[conf->irq] = 0; } else { for (i = irqmin; i <= irqmax; i++) { /* * Skip irqs not in the pool. */ if (pool_irq[i] == 0) continue; /* * -I forces us to use the interrupt, so use it. */ if (!use_kern_irq) { conf->irq = i; pool_irq[i] = 0; break; } /* * Ask the kernel if we have a free irq. */ res.min = i; res.max = i; if (ioctl(sp->fd, PIOCSRESOURCE, &res) < 0) err(1, "ioctl (PIOCSRESOURCE)"); if (res.resource_addr == ~0ul) continue; /* * res.resource_addr might be the kernel's * better idea than i, so we have to check to * see if that's in use too. If not, mark it * in use and break out of the loop. I'm not * sure this can happen when IRQ 0 above fails, * but the test is cheap enough. */ if (pool_irq[res.resource_addr] == 0) continue; conf->irq = res.resource_addr; pool_irq[conf->irq] = 0; break; } } if (conf->irq == 0) { logmsg("Failed to allocate IRQ for %s\n", cp->manuf); return (NULL); } drvp->card = cp; drvp->config = conf; drvp->inuse = 1; conf->inuse = 1; return (conf); } /* * Auto select config index */ static struct cis_config * assign_card_index(struct slot *sp, struct cis * cis) { struct cis_config *cp; struct cis_ioblk *cio; struct pccard_resource res; int i; res.type = SYS_RES_IOPORT; for (cp = cis->conf; cp; cp = cp->next) { if (!cp->iospace || !cp->io) continue; for (cio = cp->io; cio; cio = cio->next) { res.size = cio->size; res.min = cio->addr; res.max = res.min + cio->size - 1; if (ioctl(sp->fd, PIOCSRESOURCE, &res) < 0) err(1, "ioctl (PIOCSRESOURCE)"); if (res.resource_addr != cio->addr) goto next; for (i = cio->addr; i < cio->addr + cio->size - 1; i++) if (!bit_test(io_avail, i)) goto next; } return cp; /* found */ next:; } return cis->def_config; } /* * assign_io - Allocate resources to slot matching the * configuration index selected. */ static int assign_io(struct slot *sp) { struct cis *cis; struct cis_config *cisconf, *defconf; cis = sp->cis; defconf = cis->def_config; switch (sp->config->index_type) { case DEFAULT_INDEX: /* default */ cisconf = defconf; sp->config->index = cisconf->id; break; case AUTO_INDEX: /* auto */ cisconf = assign_card_index(sp, cis); if (cisconf) sp->config->index = cisconf->id; break; default: /* normal, use index value */ for (cisconf = cis->conf; cisconf; cisconf = cisconf->next) if (cisconf->id == sp->config->index) break; } if (cisconf == 0) { logmsg("Config id %d not present in this card", sp->config->index); return (-1); } sp->card_config = cisconf; /* * Found a matching configuration. Now look at the I/O, memory and IRQ * to create the desired parameters. Look at memory first. */ /* Skip ed cards in PIO mode */ if ((strncmp(sp->config->driver->name, "ed", 2) == 0) && (sp->config->flags & 0x10)) goto memskip; if (cisconf->memspace || (defconf && defconf->memspace)) { struct cis_memblk *mp; mp = cisconf->mem; /* * Currently we do not handle the presence of multiple windows. * Then again neither does the interface to the kernel! * See setup_slot() and readcis.c:cis_conf() */ if (cisconf->memwins > 1) { logmsg("Card requires %d memory windows.", cisconf->memwins); return (-4); } if (!cisconf->memspace) mp = defconf->mem; sp->mem.size = mp->length; sp->mem.cardaddr = mp->address; /* For now, we allocate our own memory from the pool. */ sp->mem.addr = sp->config->driver->mem; /* * Host memory address is required. Allocate one * from our pool. */ if (sp->mem.size && sp->mem.addr == 0) { sp->mem.addr = alloc_memory(mp->length); if (sp->mem.addr == 0) return (-2); sp->config->driver->mem = sp->mem.addr; } /* Driver specific set up */ if (strncmp(sp->config->driver->name, "ed", 2) == 0) { sp->mem.cardaddr = 0x4000; sp->mem.flags = MDF_ACTIVE | MDF_16BITS; } else { sp->mem.flags = MDF_ACTIVE | MDF_16BITS; } if (sp->mem.flags & MDF_ACTIVE) sp->flags |= MEM_ASSIGNED; if (debug_level > 0) { logmsg("Using mem addr 0x%x, size %d, card addr 0x%x, flags 0x%x\n", sp->mem.addr, sp->mem.size, sp->mem.cardaddr, sp->mem.flags); } } memskip: /* Now look at I/O. */ bzero(&sp->io, sizeof(sp->io)); if (cisconf->iospace || (defconf && defconf->iospace) || sp->card->iosize) { struct cis_config *cp; struct cis_ioblk *cio; struct allocblk *sio; int x, xmax; int iosize; cp = cisconf; if (!cisconf->iospace) cp = defconf; iosize = sp->card->iosize; /* iosize auto */ if (iosize < 0) { if (cp->io) iosize = cp->io->size; else iosize = 1 << cp->io_addr; } /* * If # of I/O lines decoded == 10, then card does its * own decoding. * * If an I/O block exists, then use it. * If no address (but a length) is available, allocate * from the pool. */ cio = cp->io; sio = &(sp->io); xmax = 1; if (iosize == 0 && cio) xmax = cisconf->io_blks; for (x = 0; x < xmax; x++) { if (iosize) { sio->addr = 0; sio->size = iosize; } else if (cio) { sio->addr = cio->addr; sio->size = cio->size; } else { /* * No I/O block, assume the address lines * decode gives the size. */ sio->size = 1 << cp->io_addr; } if (sio->addr == 0) { struct pccard_resource res; int i, j; res.type = SYS_RES_IOPORT; res.size = sio->size; for (i = 0; i < IOPORTS; i++) { j = bit_fns(io_avail, IOPORTS, i, sio->size, sio->size); if ((j & (sio->size - 1)) != 0) continue; res.min = j; res.max = j + sio->size - 1; if (ioctl(sp->fd, PIOCSRESOURCE, &res) < 0) err(1, "ioctl (PIOCSRESOURCE)"); if (res.resource_addr == j) break; } if (j < 0) { return (-3); } else { sio->addr = j; } } bit_nclear(io_avail, sio->addr, sio->addr + sio->size - 1); sp->flags |= IO_ASSIGNED; /* Set up the size to take into account the decode lines. */ sio->cardaddr = cp->io_addr; switch (cp->io_bus) { case 0: break; case 1: sio->flags = IODF_WS; break; case 2: sio->flags = IODF_WS | IODF_CS16; break; case 3: sio->flags = IODF_WS | IODF_CS16 | IODF_16BIT; break; } if (debug_level > 0) { logmsg("Using I/O addr 0x%x, size %d\n", sio->addr, sio->size); } if (cio && cio->next) { sio->next = xmalloc(sizeof(*sio)); sio = sio->next; cio = cio->next; } } } sp->irq = sp->config->irq; sp->flags |= IRQ_ASSIGNED; return (0); } /* * setup_slot - Allocate the I/O and memory contexts * return true if completed OK. */ static int setup_slot(struct slot *sp) { struct mem_desc mem; struct io_desc io; struct dev_desc drv; struct driver *drvp = sp->config->driver; struct allocblk *sio; char *p; char c; off_t offs; int rw_flags; int iowin; memset(&io, 0, sizeof io); memset(&drv, 0, sizeof drv); offs = sp->cis->reg_addr; rw_flags = MDF_ATTR; ioctl(sp->fd, PIOCRWFLAG, &rw_flags); #if RESET_MAY_BE_HARMFUL lseek(sp->fd, offs, SEEK_SET); c = 0x80; write(sp->fd, &c, sizeof(c)); usleep(sp->card->reset_time * 1000); lseek(sp->fd, offs, SEEK_SET); c = 0x00; write(sp->fd, &c, sizeof(c)); usleep(sp->card->reset_time * 1000); #endif lseek(sp->fd, offs, SEEK_SET); c = sp->config->index; c |= 0x40; write(sp->fd, &c, sizeof(c)); if (debug_level > 0) { logmsg("Setting config reg at offs 0x%lx to 0x%x, " "Reset time = %d ms\n", (unsigned long)offs, c, sp->card->reset_time); } usleep(pccard_init_sleep); usleep(sp->card->reset_time * 1000); /* If other config registers exist, set them up. */ if (sp->cis->ccrs & 2) { /* CCSR */ c = 0; if (sp->cis->def_config && sp->cis->def_config->misc_valid && (sp->cis->def_config->misc & 0x8)) c |= 0x08; if (sp->card_config->io_bus == 1) c |= 0x20; lseek(sp->fd, offs + 2, SEEK_SET); write(sp->fd, &c, sizeof(c)); } if (sp->flags & MEM_ASSIGNED) { mem.window = 0; mem.flags = sp->mem.flags; mem.start = (caddr_t) sp->mem.addr; mem.card = sp->mem.cardaddr; mem.size = sp->mem.size; if (ioctl(sp->fd, PIOCSMEM, &mem)) { logerr("ioctl (PIOCSMEM)"); return (0); } } if (sp->flags & IO_ASSIGNED) { for (iowin = 0, sio = &(sp->io); iowin <= 1; iowin++) { io.window = iowin; if (sio->size) { io.flags = sio->flags; io.start = sio->addr; io.size = sio->size; } #if 0 io.start = sp->io.addr & ~((1 << sp->io.cardaddr) - 1); io.size = 1 << sp->io.cardaddr; if (io.start < 0x100) { io.start = 0x100; io.size = 0x300; } #endif if (debug_level > 0) { logmsg("Assigning I/O window %d, start 0x%x, " "size 0x%x flags 0x%x\n", io.window, io.start, io.size, io.flags); } io.flags |= IODF_ACTIVE; if (ioctl(sp->fd, PIOCSIO, &io)) { logerr("ioctl (PIOCSIO)"); return (0); } if (ioctl(sp->fd, PIOCGIO, &io)) { logerr("ioctl (PIOCGIO)"); return(0); } if (io.start != sio->addr){ logmsg("I/O base address changed from 0x%x to 0x%x\n", sio->addr, io.start); sio->addr = io.start; } if (sio->next) sio = sio->next; else break; } } strcpy(drv.name, drvp->kernel); drv.unit = drvp->unit; drv.irqmask = 1 << sp->irq; drv.flags = sp->config->flags; if (sp->flags & MEM_ASSIGNED) { drv.mem = sp->mem.addr; drv.memsize = sp->mem.size; } else { drv.mem = 0; drv.memsize = 0; } if (sp->flags & IO_ASSIGNED) drv.iobase = sp->io.addr; else drv.iobase = 0; drv.iosize = sp->io.size; if (debug_level > 0) { logmsg("Assign %s%d, io 0x%x-0x%x, mem 0x%lx, %d bytes, " "irq %d, flags %x\n", drv.name, drv.unit, drv.iobase, drv.iobase + sp->io.size - 1, drv.mem, drv.memsize, sp->irq, drv.flags); } /* * Copy CIS_MANUF_ID from "struct slot" to "struct dev_desc" * This means moving CIS_MANUF_ID to kernel driver area. */ drv.manufacturer = sp->manufacturer; drv.product = sp->product; drv.prodext = sp->prodext; strlcpy(drv.manufstr, sp->manufstr, sizeof(drv.manufstr)); strlcpy(drv.versstr, sp->versstr, sizeof(drv.versstr)); strlcpy(drv.cis3str, sp->cis3str, sizeof(drv.cis3str)); strlcpy(drv.cis4str, sp->cis4str, sizeof(drv.cis4str)); /* * If the driver fails to be connected to the device, * then it may mean that the driver did not recognise it. */ memcpy(drv.misc, sp->eaddr, 6); if (ioctl(sp->fd, PIOCSDRV, &drv)) { logmsg("driver allocation failed for %s(%s): %s", sp->card->manuf, sp->card->version, strerror(errno)); return (0); } drv.name[sizeof(drv.name) - 1] = '\0'; if (strncmp(drv.name, drvp->kernel, sizeof(drv.name))) { drvp->kernel = newstr(drv.name); p = drvp->kernel; while (*p++) if (*p >= '0' && *p <= '9') { drvp->unit = atoi(p); *p = '\0'; break; } } logmsg("%s%d: %s inserted.", sp->config->driver->kernel, sp->config->driver->unit, sp->card->logstr); return (1); }