/* * CDDL HEADER START * * The contents of this file are subject to the terms of the * Common Development and Distribution License (the "License"). * You may not use this file except in compliance with the License. * * You can obtain a copy of the license at usr/src/OPENSOLARIS.LICENSE * or http://www.opensolaris.org/os/licensing. * See the License for the specific language governing permissions * and limitations under the License. * * When distributing Covered Code, include this CDDL HEADER in each * file and include the License file at usr/src/OPENSOLARIS.LICENSE. * If applicable, add the following below this CDDL HEADER, with the * fields enclosed by brackets "[]" replaced with your own identifying * information: Portions Copyright [yyyy] [name of copyright owner] * * CDDL HEADER END */ /* * Copyright 2008 Sun Microsystems, Inc. All rights reserved. * Use is subject to license terms. */ #pragma ident "%Z%%M% %I% %E% SMI" /* * PCMCIA NEXUS * The PCMCIA module is a generalized interface for * implementing PCMCIA nexus drivers. It preserves * the logical socket name space while allowing multiple * instances of the hardware to be properly represented * in the device tree. * * The nexus also exports events to an event manager * driver if it has registered. */ #include #include #include #include #include #include #include #include #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 sparc #include #elif defined(__x86) || defined(__amd64) #include #endif #undef SocketServices /* some bus specific stuff */ /* need PCI regspec size for worst case at present */ #include typedef struct pcmcia_logical_socket { int ls_socket; /* adapter's socket number */ uint32_t ls_flags; struct pcmcia_adapter *ls_adapter; pcmcia_if_t *ls_if; dev_info_t *ls_sockdrv; dev_info_t *ls_dip[PCMCIA_MAX_FUNCTIONS]; dev_info_t *ls_mfintr_dip; int ls_functions; uint32_t ls_cs_events; uint32_t ls_intr_pri; uint32_t ls_intr_vec; int ls_intrrefs; struct intrspec ls_intrspec; /* MFC intrspec */ inthandler_t *ls_inthandlers; /* for multifunction cards */ ddi_iblock_cookie_t ls_iblk; ddi_idevice_cookie_t ls_idev; kmutex_t ls_ilock; int ls_error; /* error for CS return */ } pcmcia_logical_socket_t; /* * entry points used by the true nexus */ int pcmcia_detach(dev_info_t *, ddi_detach_cmd_t); int pcmcia_ctlops(dev_info_t *, dev_info_t *, ddi_ctl_enum_t, void *, void *); int pcmcia_prop_op(dev_t, dev_info_t *, dev_info_t *, ddi_prop_op_t, int, char *, caddr_t, int *); void pcmcia_set_assigned(dev_info_t *, int, ra_return_t *); int pcmcia_intr_ops(dev_info_t *dip, dev_info_t *rdip, ddi_intr_op_t intr_op, ddi_intr_handle_impl_t *hdlp, void *result); /* * prototypes used internally by the nexus and sometimes Card Services */ int SocketServices(int function, ...); void *CISParser(int function, ...); extern void *(*cis_parser)(int, ...); struct regspec *pcmcia_cons_regspec(dev_info_t *, int, uchar_t *, ra_return_t *); static int (*pcmcia_card_services)(int, ...) = NULL; /* * variables used in the logical/physical mappings * that the nexus common code maintains. */ struct pcmcia_adapter *pcmcia_adapters[PCMCIA_MAX_ADAPTERS]; int pcmcia_num_adapters; pcmcia_logical_socket_t *pcmcia_sockets[PCMCIA_MAX_SOCKETS]; int pcmcia_num_sockets; pcmcia_logical_window_t *pcmcia_windows[PCMCIA_MAX_WINDOWS]; int pcmcia_num_windows; struct power_entry pcmcia_power_table[PCMCIA_MAX_POWER]; int pcmcia_num_power; struct pcmcia_mif *pcmcia_mif_handlers = NULL; pcm_dev_node_t *pcmcia_devnodes = NULL; kmutex_t pcmcia_global_lock; kcondvar_t pcmcia_condvar; kmutex_t pcmcia_enum_lock; /* * Mapping of the device "type" to names acceptable to * the DDI */ static char *pcmcia_dev_type[] = { "multifunction", "byte", "serial", "parallel", "block", "display", "network", "block", "byte" }; char *pcmcia_default_pm_mode = "parental-suspend-resume"; /* * generic names from the approved list: * disk tape pci sbus scsi token-ring isa keyboard display mouse * audio ethernet timer memory parallel serial rtc nvram scanner * floppy(controller) fddi isdn atm ide pccard video-in video-out * in some cases there will need to be device class dependent names. * network -> ethernet, token-ring, etc. * this list is a first guess and is used when all else fails. */ char *pcmcia_generic_names[] = { "multifunction", "memory", "serial", "parallel", "disk", "video", /* no spec for video-out yet */ "network", "aims", "scsi", "security" }; #define PCM_GENNAME_SIZE (sizeof (pcmcia_generic_names) / \ sizeof (char *)) #define PCMCIA_MAP_IO 0x0 #define PCMCIA_MAP_MEM 0x1 #define PPB_SUBTRACTIVE ((PCI_CLASS_BRIDGE << 16) | (PCI_BRIDGE_PCI << 8) | \ (PCI_BRIDGE_PCI_IF_SUBDECODE)) /* * The following should be 2^^n - 1 */ #define PCMCIA_SOCKET_BITS 0x7f #ifdef PCMCIA_DEBUG int pcmcia_debug = 0x0; static void pcmcia_dump_minors(dev_info_t *); #endif static f_tt *pcmcia_cs_event = NULL; int pcmcia_timer_id; dev_info_t *pcmcia_dip; /* * XXX - See comments in cs.c */ static f_tt *pcmcia_cis_parser = NULL; extern struct pc_socket_services pc_socket_services; /* some function declarations */ static int pcm_adapter_callback(dev_info_t *, int, int, int); extern void pcmcia_init_adapter(anp_t *, dev_info_t *); extern void pcmcia_find_cards(anp_t *); extern void pcmcia_merge_power(struct power_entry *); extern void pcmcia_do_resume(int, pcmcia_logical_socket_t *); extern void pcmcia_resume(int, pcmcia_logical_socket_t *); extern void pcmcia_do_suspend(int, pcmcia_logical_socket_t *); extern void pcm_event_manager(int, int, void *); static void pcmcia_create_dev_info(int); static int pcmcia_create_device(ss_make_device_node_t *); static void pcmcia_init_devinfo(dev_info_t *, struct pcm_device_info *); void pcmcia_fix_string(char *str); dev_info_t *pcmcia_number_socket(dev_info_t *, int); static int pcmcia_merge_conf(dev_info_t *); static uint32_t pcmcia_mfc_intr(caddr_t, caddr_t); void pcmcia_free_resources(dev_info_t *); static void pcmcia_ppd_free(struct pcmcia_parent_private *ppd); int pcmcia_get_intr(dev_info_t *, int); int pcmcia_return_intr(dev_info_t *, int); int pcmcia_ra_alloc(dev_info_t *, ndi_ra_request_t *, ra_return_t *, char *, dev_info_t **); int pcmcia_ra_free(dev_info_t *, ra_return_t *, char *); extern int cs_init(void); extern int cs_deinit(void); extern void cisp_init(void); extern void cis_deinit(void); /* * non-DDI compliant functions are listed here * some will be declared while others that have * entries in .h files. All will be commented on. * * with declarations: * ddi_add_child * ddi_binding_name * ddi_bus_prop_op * ddi_ctlops * ddi_find_devinfo * ddi_get_name_addr * ddi_get_parent_data * ddi_hold_installed_driver * ddi_name_to_major * ddi_node_name * ddi_pathname * ddi_rele_driver * ddi_set_name_addr * ddi_set_parent_data * ddi_unorphan_devs * i_ddi_bind_node_to_driver * i_ddi_bind_node_to_driver * i_ddi_bus_map * i_ddi_map_fault * i_ddi_mem_alloc * i_ddi_mem_alloc * i_ddi_mem_free * i_ddi_mem_free * modload * modunload */ extern void ddi_unorphan_devs(major_t); /* Card&Socket Services entry points */ static int GetCookiesAndDip(sservice_t *); static int SSGetAdapter(get_adapter_t *); static int SSGetPage(get_page_t *); static int SSGetSocket(get_socket_t *); static int SSGetStatus(get_ss_status_t *); static int SSGetWindow(get_window_t *); static int SSInquireAdapter(inquire_adapter_t *); static int SSInquireSocket(inquire_socket_t *); static int SSInquireWindow(inquire_window_t *); static int SSResetSocket(int, int); static int SSSetPage(set_page_t *); static int SSSetSocket(set_socket_t *); static int SSSetWindow(set_window_t *); static int SSSetIRQHandler(set_irq_handler_t *); static int SSClearIRQHandler(clear_irq_handler_t *); static struct modldrv modlmisc = { &mod_miscops, /* Type of module. This one is a driver */ "PCMCIA Nexus Support %I%", /* Name of the module. */ }; static struct modlinkage modlinkage = { MODREV_1, (void *)&modlmisc, NULL }; int _init() { int ret; cisp_init(); if (cs_init() != CS_SUCCESS) { if (cs_deinit() != CS_SUCCESS) cmn_err(CE_CONT, "pcmcia: _init cs_deinit error\n"); return (-1); } mutex_init(&pcmcia_global_lock, NULL, MUTEX_DEFAULT, NULL); cv_init(&pcmcia_condvar, NULL, CV_DRIVER, NULL); mutex_init(&pcmcia_enum_lock, NULL, MUTEX_DEFAULT, NULL); if ((ret = mod_install(&modlinkage)) != 0) { mutex_destroy(&pcmcia_global_lock); cv_destroy(&pcmcia_condvar); mutex_destroy(&pcmcia_enum_lock); } return (ret); } int _fini() { int ret; if ((ret = mod_remove(&modlinkage)) == 0) { mutex_destroy(&pcmcia_global_lock); cv_destroy(&pcmcia_condvar); mutex_destroy(&pcmcia_enum_lock); cis_deinit(); if (cs_deinit() != CS_SUCCESS) { cmn_err(CE_CONT, "pcmcia: _fini cs_deinit error\n"); } } return (ret); } int _info(struct modinfo *modinfop) { return (mod_info(&modlinkage, modinfop)); } extern pri_t minclsyspri; /* * pcmcia_attach() * the attach routine must make sure that everything needed is present * including real hardware. The sequence of events is: * attempt to load all adapter drivers * attempt to load Card Services (which _depends_on pcmcia) * initialize logical sockets * report the nexus exists */ int pcmcia_attach(dev_info_t *dip, anp_t *adapter) { int count, done, i; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_attach: dip=0x%p adapter=0x%p\n", (void *)dip, (void *)adapter); } #endif pcmcia_dip = dip; mutex_enter(&pcmcia_enum_lock); mutex_enter(&pcmcia_global_lock); if (pcmcia_num_adapters == 0) { pcmcia_cis_parser = (f_tt *)CISParser; cis_parser = (void *(*)(int, ...)) CISParser; pcmcia_cs_event = (f_tt *)cs_event; cs_socket_services = SocketServices; /* tell CS we are up with basic init level */ (void) cs_event(PCE_SS_INIT_STATE, PCE_SS_STATE_INIT, 0); } (void) ddi_prop_update_string(DDI_DEV_T_NONE, dip, PCM_DEVICETYPE, "pccard"); ddi_report_dev(dip); /* directory/device naming */ /* * now setup any power management stuff necessary. * we do it here in order to ensure that all PC Card nexi * implement it. */ if (pm_create_components(dip, 1) != DDI_SUCCESS) { cmn_err(CE_WARN, "%s: not power managed\n", ddi_get_name_addr(dip)); } else { pm_set_normal_power(dip, 0, 1); } /* * setup the info necessary for Card Services/SocketServices * and notify CS when ready. */ pcmcia_free_resources(dip); pcmcia_init_adapter(adapter, dip); /* exit mutex so CS can run for any cards found */ mutex_exit(&pcmcia_global_lock); /* * make sure the devices are identified before * returning. We do this by checking each socket to see if * a card is present. If there is one, and there isn't a dip, * we can't be done. We scan the list of sockets doing the * check. if we aren't done, wait for a condition variable to * wakeup. * Because we can miss a wakeup and because things can * take time, we do eventually give up and have a timeout. */ for (count = 0, done = 0; done == 0 && count < max(pcmcia_num_sockets, 16); count++) { done = 1; /* block CS while checking so we don't miss anything */ mutex_enter(&pcmcia_global_lock); for (i = 0; i < pcmcia_num_sockets; i++) { get_ss_status_t status; if (pcmcia_sockets[i] == NULL) continue; bzero(&status, sizeof (status)); status.socket = i; if (SSGetStatus(&status) == SUCCESS) { if (status.CardState & SBM_CD && pcmcia_sockets[i]->ls_dip[0] == NULL) { done = 0; } } } /* only wait if we aren't done with this set */ if (!done) { mutex_exit(&pcmcia_global_lock); delay(10); /* give up CPU for a time */ mutex_enter(&pcmcia_global_lock); } mutex_exit(&pcmcia_global_lock); } mutex_exit(&pcmcia_enum_lock); return (DDI_SUCCESS); } /* * pcmcia_detach * unload everything and then detach the nexus */ /* ARGSUSED */ int pcmcia_detach(dev_info_t *dip, ddi_detach_cmd_t cmd) { switch (cmd) { case DDI_DETACH: pm_destroy_components(dip); return (DDI_SUCCESS); /* * resume from a checkpoint * We don't do anything special here since the adapter * driver will generate resume events that we intercept * and convert to insert events. */ case DDI_SUSPEND: case DDI_PM_SUSPEND: return (DDI_SUCCESS); default: return (DDI_FAILURE); } } /* * card_services_error() * used to make 2.4/2.5 drivers get an error when * they try to initialize. */ static int card_services_error() { return (CS_BAD_VERSION); } static int (*cs_error_ptr)() = card_services_error; /* * pcmcia_ctlops * handle the nexus control operations for the cases where * a PC Card driver gets called and we need to modify the * devinfo structure or otherwise do bus specific operations */ int pcmcia_ctlops(dev_info_t *dip, dev_info_t *rdip, ddi_ctl_enum_t ctlop, void *arg, void *result) { int e; char name[64]; struct pcmcia_parent_private *ppd; power_req_t *pm; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_ctlops(%p, %p, %d, %p, %p)\n", (void *)dip, (void *)rdip, ctlop, (void *)arg, (void *)result); if (rdip != NULL && ddi_get_name(rdip) != NULL) cmn_err(CE_CONT, "\t[%s]\n", ddi_get_name(rdip)); } #endif switch (ctlop) { case DDI_CTLOPS_REPORTDEV: if (rdip == (dev_info_t *)0) return (DDI_FAILURE); if (strcmp("pcs", ddi_node_name(rdip)) == 0) cmn_err(CE_CONT, "?PCCard socket %d at %s@%s\n", ddi_get_instance(rdip), ddi_driver_name(dip), ddi_get_name_addr(dip)); else cmn_err(CE_CONT, "?%s%d at %s@%s in socket %d\n", ddi_driver_name(rdip), ddi_get_instance(rdip), ddi_driver_name(dip), ddi_get_name_addr(dip), CS_GET_SOCKET_NUMBER( ddi_getprop(DDI_DEV_T_NONE, rdip, DDI_PROP_DONTPASS, PCM_DEV_SOCKET, -1))); return (DDI_SUCCESS); case DDI_CTLOPS_INITCHILD: /* * we get control here before the child is called. * we can change things if necessary. This is where * the CardServices hook gets planted. */ #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia: init child: %s(%d) @%p\n", ddi_node_name(arg), ddi_get_instance(arg), (void *)arg); if (DEVI(arg)->devi_binding_name != NULL) cmn_err(CE_CONT, "\tbinding_name=%s\n", DEVI(arg)->devi_binding_name); if (DEVI(arg)->devi_node_name != NULL) cmn_err(CE_CONT, "\tnode_name=%s\n", DEVI(arg)->devi_node_name); } #endif ppd = (struct pcmcia_parent_private *) ddi_get_parent_data((dev_info_t *)arg); if (ppd == NULL) return (DDI_FAILURE); if (strcmp("pcs", ddi_node_name((dev_info_t *)arg)) == 0) { if (ppd == NULL) return (DDI_FAILURE); (void) sprintf(name, "%x", (int)ppd->ppd_reg[0].phys_hi); ddi_set_name_addr((dev_info_t *)arg, name); return (DDI_SUCCESS); } /* * We don't want driver.conf files that stay in * pseudo device form. It is acceptable to have * .conf files add properties only. */ if (ndi_dev_is_persistent_node((dev_info_t *)arg) == 0) { (void) pcmcia_merge_conf((dev_info_t *)arg); cmn_err(CE_WARN, "%s%d: %s.conf invalid", ddi_get_name((dev_info_t *)arg), ddi_get_instance((dev_info_t *)arg), ddi_get_name((dev_info_t *)arg)); return (DDI_FAILURE); } #if defined(PCMCIA_DEBUG) if (pcmcia_debug && ppd != NULL) { cmn_err(CE_CONT, "\tnreg=%x, intr=%x, socket=%x," " function=%x, active=%x, flags=%x\n", ppd->ppd_nreg, ppd->ppd_intr, ppd->ppd_socket, ppd->ppd_function, ppd->ppd_active, ppd->ppd_flags); } #endif /* * make sure names are relative to socket number */ if (ppd->ppd_function > 0) { int sock; int func; sock = ppd->ppd_socket; func = ppd->ppd_function; (void) sprintf(name, "%x,%x", sock, func); } else { (void) sprintf(name, "%x", ppd->ppd_socket); } ddi_set_name_addr((dev_info_t *)arg, name); #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia: system init done for %s [%s] " "nodeid: %x @%s\n", ddi_get_name(arg), ddi_get_name_addr(arg), DEVI(arg)->devi_nodeid, name); if (pcmcia_debug > 1) pcmcia_dump_minors((dev_info_t *)arg); #endif return (DDI_SUCCESS); case DDI_CTLOPS_UNINITCHILD: #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia: uninit child: %s(%d) @%p\n", ddi_node_name(arg), ddi_get_instance(arg), (void *)arg); if (DEVI(arg)->devi_binding_name != NULL) cmn_err(CE_CONT, "\tbinding_name=%s\n", DEVI(arg)->devi_binding_name); if (DEVI(arg)->devi_node_name != NULL) cmn_err(CE_CONT, "\tnode_name=%s\n", DEVI(arg)->devi_node_name); } #endif ddi_set_name_addr((dev_info_t *)arg, NULL); ddi_remove_minor_node((dev_info_t *)arg, NULL); return (DDI_SUCCESS); case DDI_CTLOPS_SLAVEONLY: /* PCMCIA devices can't ever be busmaster until CardBus */ ppd = (struct pcmcia_parent_private *) ddi_get_parent_data(rdip); if (ppd != NULL && ppd->ppd_flags & PPD_CB_BUSMASTER) return (DDI_FAILURE); /* at most */ return (DDI_SUCCESS); case DDI_CTLOPS_SIDDEV: /* in general this is true. */ return (DDI_SUCCESS); case DDI_CTLOPS_NREGS: ppd = (struct pcmcia_parent_private *) ddi_get_parent_data(rdip); if (ppd != NULL) *((uint32_t *)result) = (ppd->ppd_nreg); else *((uint32_t *)result) = 0; return (DDI_SUCCESS); case DDI_CTLOPS_REGSIZE: ppd = (struct pcmcia_parent_private *) ddi_get_parent_data(rdip); if (ppd != NULL && ppd->ppd_nreg > 0) *((off_t *)result) = sizeof (struct pcm_regs); else *((off_t *)result) = 0; return (DDI_SUCCESS); case DDI_CTLOPS_POWER: ppd = (struct pcmcia_parent_private *) ddi_get_parent_data(rdip); if (ppd == NULL) return (DDI_FAILURE); /* * if this is not present, don't bother (claim success) * since it is already in the right state. Don't * do any resume either since the card insertion will * happen independently. */ if (!ppd->ppd_active) return (DDI_SUCCESS); for (e = 0; e < pcmcia_num_adapters; e++) if (pcmcia_adapters[e] == pcmcia_sockets[ppd->ppd_socket]->ls_adapter) break; if (e == pcmcia_num_adapters) return (DDI_FAILURE); pm = (power_req_t *)arg; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_WARN, "power: %d: %p, %d, %d [%s]\n", pm->request_type, (void *)pm->req.set_power_req.who, pm->req.set_power_req.cmpt, pm->req.set_power_req.level, ddi_get_name_addr(rdip)); } #endif e = ppd->ppd_socket; switch (pm->request_type) { case PMR_SUSPEND: if (!(pcmcia_sockets[e]->ls_flags & PCS_SUSPENDED)) { pcmcia_do_suspend(ppd->ppd_socket, pcmcia_sockets[e]); } ppd->ppd_flags |= PPD_SUSPENDED; return (DDI_SUCCESS); case PMR_RESUME: /* for now, we just succeed since the rest is done */ return (DDI_SUCCESS); case PMR_SET_POWER: /* * not sure how to handle power control * for now, we let the child handle it itself */ (void) pcmcia_power(pm->req.set_power_req.who, pm->req.set_power_req.cmpt, pm->req.set_power_req.level); break; default: break; } return (DDI_FAILURE); /* These CTLOPS will need to be implemented for new form */ /* let CardServices know about this */ case DDI_CTLOPS_DETACH: return (DDI_SUCCESS); case DDI_CTLOPS_ATTACH: return (DDI_SUCCESS); default: /* if we don't understand, pass up the tree */ /* most things default to general ops */ return (ddi_ctlops(dip, rdip, ctlop, arg, result)); } } struct pcmcia_props { char *name; int len; int prop; } pcmcia_internal_props[] = { { PCM_DEV_ACTIVE, 0, PCMCIA_PROP_ACTIVE }, { PCM_DEV_R2TYPE, 0, PCMCIA_PROP_R2TYPE }, { PCM_DEV_CARDBUS, 0, PCMCIA_PROP_CARDBUS }, { CS_PROP, sizeof (void *), PCMCIA_PROP_OLDCS }, { "reg", 0, PCMCIA_PROP_REG }, { "interrupts", sizeof (int), PCMCIA_PROP_INTR }, { "pm-hardware-state", 0, PCMCIA_PROP_DEFAULT_PM }, }; /* * pcmcia_prop_decode(name) * decode the name and determine if this is a property * we construct on the fly, one we have on the prop list * or one that requires calling the CIS code. */ static int pcmcia_prop_decode(char *name) { int i; if (strncmp(name, "cistpl_", 7) == 0) return (PCMCIA_PROP_CIS); for (i = 0; i < (sizeof (pcmcia_internal_props) / sizeof (struct pcmcia_props)); i++) { if (strcmp(name, pcmcia_internal_props[i].name) == 0) return (i); } return (PCMCIA_PROP_UNKNOWN); } /* * pcmcia_prop_op() * we don't have properties in PROM per se so look for them * only in the devinfo node. Future may allow us to find * certain CIS tuples via this interface if a user asks for * a property of the form "cistpl-" but not yet. * * The addition of 1275 properties adds to the necessity. */ int pcmcia_prop_op(dev_t dev, dev_info_t *dip, dev_info_t *ch_dip, ddi_prop_op_t prop_op, int mod_flags, char *name, caddr_t valuep, int *lengthp) { int len, proplen, which, flags; caddr_t buff, propptr; struct pcmcia_parent_private *ppd; len = *lengthp; ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(ch_dip); switch (which = pcmcia_prop_decode(name)) { default: if (ppd == NULL) return (DDI_PROP_NOT_FOUND); /* note that proplen may get modified */ proplen = pcmcia_internal_props[which].len; switch (pcmcia_internal_props[which].prop) { case PCMCIA_PROP_DEFAULT_PM: propptr = pcmcia_default_pm_mode; proplen = strlen(propptr) + 1; break; case PCMCIA_PROP_OLDCS: propptr = (caddr_t)&cs_error_ptr; break; case PCMCIA_PROP_REG: propptr = (caddr_t)ppd->ppd_reg; proplen = ppd->ppd_nreg * sizeof (struct pcm_regs); break; case PCMCIA_PROP_INTR: propptr = (caddr_t)&ppd->ppd_intr; break; /* the next set are boolean values */ case PCMCIA_PROP_ACTIVE: propptr = NULL; if (!ppd->ppd_active) { return (DDI_PROP_NOT_FOUND); } break; case PCMCIA_PROP_R2TYPE: propptr = NULL; if (ppd->ppd_flags & PPD_CARD_CARDBUS) return (DDI_PROP_NOT_FOUND); break; case PCMCIA_PROP_CARDBUS: propptr = NULL; if (!(ppd->ppd_flags * PPD_CARD_CARDBUS)) return (DDI_PROP_NOT_FOUND); break; } break; case PCMCIA_PROP_CIS: /* * once we have the lookup code in place * it is sufficient to break out of the switch * once proplen and propptr are set. * The common prop_op code deals with the rest. */ case PCMCIA_PROP_UNKNOWN: return (ddi_bus_prop_op(dev, dip, ch_dip, prop_op, mod_flags | DDI_PROP_NOTPROM, name, valuep, lengthp)); } if (prop_op == PROP_LEN) { /* just the length */ *lengthp = proplen; return (DDI_PROP_SUCCESS); } switch (prop_op) { case PROP_LEN_AND_VAL_ALLOC: if (mod_flags & DDI_PROP_CANSLEEP) flags = KM_SLEEP; else flags = KM_NOSLEEP; buff = kmem_alloc((size_t)proplen, flags); if (buff == NULL) return (DDI_PROP_NO_MEMORY); *(caddr_t *)valuep = (caddr_t)buff; break; case PROP_LEN_AND_VAL_BUF: buff = (caddr_t)valuep; if (len < proplen) return (DDI_PROP_BUF_TOO_SMALL); break; default: break; } if (proplen > 0) bcopy(propptr, buff, proplen); *lengthp = proplen; return (DDI_PROP_SUCCESS); } struct regspec * pcmcia_rnum_to_regspec(dev_info_t *dip, int rnumber) { struct pcmcia_parent_private *ppd; ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(dip); if (ppd->ppd_nreg < rnumber) return (NULL); return ((struct regspec *)&ppd->ppd_reg[rnumber]); } struct regspec * pcmcia_rnum_to_mapped(dev_info_t *dip, int rnumber) { struct pcmcia_parent_private *ppd; ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(dip); if (ppd->ppd_nreg < rnumber) return (NULL); if (ppd->ppd_assigned == NULL) return (NULL); if (ppd->ppd_assigned[rnumber].phys_len == 0) return (NULL); else return ((struct regspec *)&ppd->ppd_assigned[rnumber]); } int pcmcia_find_rnum(dev_info_t *dip, struct regspec *reg) { struct pcmcia_parent_private *ppd; struct regspec *regp; int i; ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(dip); if (ppd == NULL) return (-1); for (regp = (struct regspec *)ppd->ppd_reg, i = 0; i < ppd->ppd_nreg; i++, regp++) { if (bcmp(reg, regp, sizeof (struct regspec)) == 0) return (i); } for (regp = (struct regspec *)ppd->ppd_assigned, i = 0; i < ppd->ppd_nreg; i++, regp++) { if (bcmp(reg, regp, sizeof (struct regspec)) == 0) return (i); } return (-1); } int pcmcia_bus_map(dev_info_t *dip, dev_info_t *rdip, ddi_map_req_t *mp, off_t offset, off_t len, caddr_t *vaddrp) { struct pcm_regs *regs, *mregs = NULL, tmp_reg; ddi_map_req_t mr = *mp; ra_return_t ret; int check, rnum = -1; uint32_t base; uchar_t regbuf[sizeof (pci_regspec_t)]; mp = &mr; /* a copy of original request */ /* check for register number */ switch (mp->map_type) { case DDI_MT_REGSPEC: regs = (struct pcm_regs *)mp->map_obj.rp; mregs = (struct pcm_regs *)mp->map_obj.rp; /* * when using regspec, must not be relocatable * and should be from assigned space. */ if (!PC_REG_RELOC(regs->phys_hi)) return (DDI_FAILURE); rnum = pcmcia_find_rnum(rdip, (struct regspec *)mregs); break; case DDI_MT_RNUMBER: regs = (struct pcm_regs *) pcmcia_rnum_to_regspec(rdip, mp->map_obj.rnumber); mregs = (struct pcm_regs *) pcmcia_rnum_to_mapped(rdip, mp->map_obj.rnumber); rnum = mp->map_obj.rnumber; if (regs == NULL) return (DDI_FAILURE); mp->map_type = DDI_MT_REGSPEC; mp->map_obj.rp = (struct regspec *)mregs; break; default: return (DDI_ME_INVAL); } /* basic sanity checks */ switch (mp->map_op) { default: return (DDI_ME_UNIMPLEMENTED); case DDI_MO_UNMAP: if (mregs == NULL) return (DDI_FAILURE); regs = mregs; break; case DDI_MO_MAP_LOCKED: case DDI_MO_MAP_HANDLE: panic("unsupported bus operation"); /*NOTREACHED*/ } /* * we need a private copy for manipulation and * calculation of the correct ranges */ tmp_reg = *regs; mp->map_obj.rp = (struct regspec *)(regs = &tmp_reg); base = regs->phys_lo; if (base == 0 && offset != 0) { /* * for now this is an error. What does it really mean * to ask for an offset from an address that hasn't * been allocated yet. */ return (DDI_ME_INVAL); } regs->phys_lo += (uint32_t)offset; if (len != 0) { if (len > regs->phys_len) { return (DDI_ME_INVAL); } regs->phys_len = len; } /* * basic sanity is checked so now make sure * we can actually allocate something for this * request and then convert to a "standard" * regspec for the next layer up (pci/isa/rootnex/etc.) */ switch (PC_GET_REG_TYPE(regs->phys_hi)) { case PC_REG_SPACE_IO: check = PCA_RES_NEED_IO; break; case PC_REG_SPACE_MEMORY: check = PCA_RES_NEED_MEM; break; default: /* not a valid register type */ return (DDI_FAILURE); } mr.map_type = DDI_MT_REGSPEC; ret.ra_addr_hi = 0; ret.ra_addr_lo = regs->phys_lo; ret.ra_len = regs->phys_len; mr.map_obj.rp = pcmcia_cons_regspec(dip, (check == PCA_RES_NEED_IO) ? PCMCIA_MAP_IO : PCMCIA_MAP_MEM, regbuf, &ret); switch (mp->map_op) { case DDI_MO_UNMAP: pcmcia_set_assigned(rdip, rnum, NULL); break; default: break; } return (ddi_map(dip, &mr, (off_t)0, (off_t)0, vaddrp)); } /* * pcmcia_cons_regspec() * based on parent's bus type, construct a regspec that is usable * by that parent to map the resource into the system. */ #define PTYPE_PCI 1 #define PTYPE_ISA 0 struct regspec * pcmcia_cons_regspec(dev_info_t *dip, int type, uchar_t *buff, ra_return_t *ret) { int ptype = -1, len, bus; char device_type[MODMAXNAMELEN + 1]; dev_info_t *pdip; struct regspec *defreg; pci_regspec_t *pcireg; pdip = ddi_get_parent(dip); if (pdip != ddi_root_node()) { /* we're not a child of root so find out what */ len = sizeof (device_type); if (ddi_prop_op(DDI_DEV_T_ANY, pdip, PROP_LEN_AND_VAL_BUF, 0, "device_type", (caddr_t)device_type, &len) == DDI_PROP_SUCCESS) { /* check things out */ if (strcmp(device_type, "pci") == 0) ptype = PTYPE_PCI; else if (strcmp(device_type, "isa") == 0) ptype = PTYPE_ISA; } } switch (ptype) { case PTYPE_PCI: /* XXX need to look at carefully */ if (ddi_getlongprop(DDI_DEV_T_ANY, dip, DDI_PROP_DONTPASS, "reg", (caddr_t)&pcireg, &len) == DDI_SUCCESS) { bus = PCI_REG_BUS_G(pcireg->pci_phys_hi); kmem_free(pcireg, len); } else { bus = 0; } pcireg = (pci_regspec_t *)buff; pcireg->pci_phys_hi = (type == PCMCIA_MAP_IO ? PCI_ADDR_IO : PCI_ADDR_MEM32) | PCI_RELOCAT_B | (bus << 16); pcireg->pci_phys_mid = ret->ra_addr_hi; pcireg->pci_phys_low = ret->ra_addr_lo; if (type == PCMCIA_MAP_IO) pcireg->pci_phys_low &= 0xFFFF; pcireg->pci_size_hi = 0; pcireg->pci_size_low = ret->ra_len; break; default: /* default case is to use struct regspec */ defreg = (struct regspec *)buff; defreg->regspec_bustype = type == PCMCIA_MAP_IO ? 1 : 0; defreg->regspec_addr = ret->ra_addr_lo; defreg->regspec_size = ret->ra_len; break; } return ((struct regspec *)buff); } /* * pcmcia_init_adapter * Initialize the per-adapter structures and check to see if * there are possible other instances coming. */ void pcmcia_init_adapter(anp_t *adapter, dev_info_t *dip) { int i, n; pcmcia_if_t *ls_if; i = pcmcia_num_adapters++; pcmcia_adapters[i] = kmem_zalloc(sizeof (struct pcmcia_adapter), KM_SLEEP); pcmcia_adapters[i]->pca_dip = dip; /* should this be pca_winshift??? */ pcmcia_adapters[i]->pca_module = ddi_name_to_major(ddi_get_name(dip)); pcmcia_adapters[i]->pca_unit = ddi_get_instance(dip); pcmcia_adapters[i]->pca_iblock = adapter->an_iblock; pcmcia_adapters[i]->pca_idev = adapter->an_idev; pcmcia_adapters[i]->pca_if = ls_if = adapter->an_if; pcmcia_adapters[i]->pca_number = i; (void) strcpy(pcmcia_adapters[i]->pca_name, ddi_get_name(dip)); pcmcia_adapters[i]-> pca_name[sizeof (pcmcia_adapters[i]->pca_name) - 1] = NULL; if (ls_if != NULL) { inquire_adapter_t conf; int sock, win; if (ls_if->pcif_inquire_adapter != NULL) GET_CONFIG(ls_if, dip, &conf); /* resources - assume worst case and fix from there */ pcmcia_adapters[i]->pca_flags = PCA_RES_NEED_IRQ | PCA_RES_NEED_IO | PCA_RES_NEED_MEM; /* indicate first socket not initialized */ pcmcia_adapters[i]->pca_first_socket = -1; if (conf.ResourceFlags & RES_OWN_IRQ) pcmcia_adapters[i]->pca_flags &= ~PCA_RES_NEED_IRQ; if (conf.ResourceFlags & RES_OWN_IO) pcmcia_adapters[i]->pca_flags &= ~PCA_RES_NEED_IO; if (conf.ResourceFlags & RES_OWN_MEM) pcmcia_adapters[i]->pca_flags &= ~PCA_RES_NEED_MEM; if (conf.ResourceFlags & RES_IRQ_SHAREABLE) pcmcia_adapters[i]->pca_flags |= PCA_IRQ_SHAREABLE; if (conf.ResourceFlags & RES_IRQ_NEXUS) pcmcia_adapters[i]->pca_flags |= PCA_IRQ_SMI_SHARE; /* need to know interrupt limitations */ if (conf.ActiveLow) { pcmcia_adapters[i]->pca_avail_intr = conf.ActiveLow; pcmcia_adapters[i]->pca_flags |= PCA_IRQ_ISA; } else pcmcia_adapters[i]->pca_avail_intr = conf.ActiveHigh; /* power entries for adapter */ pcmcia_adapters[i]->pca_power = conf.power_entry; pcmcia_adapters[i]->pca_numpower = conf.NumPower; for (n = 0; n < conf.NumPower; n++) pcmcia_merge_power(&conf.power_entry[n]); /* now setup the per socket info */ for (sock = 0; sock < conf.NumSockets; sock++) { dev_info_t *sockdrv = NULL; sockdrv = pcmcia_number_socket(dip, sock); if (sockdrv == NULL) n = sock + pcmcia_num_sockets; else { n = ddi_get_instance(sockdrv); } /* make sure we know first socket on adapter */ if (pcmcia_adapters[i]->pca_first_socket == -1) pcmcia_adapters[i]->pca_first_socket = n; /* * the number of sockets is weird. * we might have only two sockets but * due to persistence of instances we * will need to call them something other * than 0 and 1. So, we use the largest * instance number as the number and * have some that just don't get used. */ if (n >= pcmcia_num_sockets) pcmcia_num_sockets = n + 1; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_init: new socket added %d " "(%d)\n", n, pcmcia_num_sockets); } #endif pcmcia_sockets[n] = kmem_zalloc(sizeof (pcmcia_logical_socket_t), KM_SLEEP); pcmcia_sockets[n]->ls_socket = sock; pcmcia_sockets[n]->ls_if = ls_if; pcmcia_sockets[n]->ls_adapter = pcmcia_adapters[i]; pcmcia_sockets[n]->ls_cs_events = 0L; pcmcia_sockets[n]->ls_sockdrv = sockdrv; /* Prototype of intrspec */ pcmcia_sockets[n]->ls_intr_pri = adapter->an_ipl; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "phys sock %d, log sock %d\n", sock, n); #endif mutex_init(&pcmcia_sockets[n]->ls_ilock, NULL, MUTEX_DRIVER, *adapter->an_iblock); } pcmcia_adapters[i]->pca_numsockets = conf.NumSockets; /* now setup the per window information */ for (win = 0; win < conf.NumWindows; win++) { n = win + pcmcia_num_windows; pcmcia_windows[n] = kmem_zalloc(sizeof (pcmcia_logical_window_t), KM_SLEEP); pcmcia_windows[n]->lw_window = win; pcmcia_windows[n]->lw_if = ls_if; pcmcia_windows[n]->lw_adapter = pcmcia_adapters[i]; } pcmcia_num_windows += conf.NumWindows; SET_CALLBACK(ls_if, dip, pcm_adapter_callback, i); /* now tell CS about each socket */ for (sock = 0; sock < pcmcia_num_sockets; sock++) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_init: notify CS socket %d " "sockp=%p\n", sock, (void *)pcmcia_sockets[sock]); } #endif if (pcmcia_sockets[sock] == NULL || (pcmcia_sockets[sock]->ls_flags & PCS_SOCKET_ADDED)) { /* skip the ones that are done already */ continue; } pcmcia_sockets[sock]->ls_flags |= PCS_SOCKET_ADDED; if (cs_event(PCE_ADD_SOCKET, sock, 0) != CS_SUCCESS) { /* flag socket as broken */ pcmcia_sockets[sock]->ls_flags = 0; } else { pcm_event_manager(PCE_ADD_SOCKET, sock, NULL); } } } #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "logical sockets:\n"); for (i = 0; i < pcmcia_num_sockets; i++) { if (pcmcia_sockets[i] == NULL) continue; cmn_err(CE_CONT, "\t%d: phys sock=%d, if=%p, adapt=%p\n", i, pcmcia_sockets[i]->ls_socket, (void *)pcmcia_sockets[i]->ls_if, (void *)pcmcia_sockets[i]->ls_adapter); } cmn_err(CE_CONT, "logical windows:\n"); for (i = 0; i < pcmcia_num_windows; i++) { cmn_err(CE_CONT, "\t%d: phys_window=%d, if=%p, adapt=%p\n", i, pcmcia_windows[i]->lw_window, (void *)pcmcia_windows[i]->lw_if, (void *)pcmcia_windows[i]->lw_adapter); } cmn_err(CE_CONT, "\tpcmcia_num_power=%d\n", pcmcia_num_power); for (n = 0; n < pcmcia_num_power; n++) cmn_err(CE_CONT, "\t\tPowerLevel: %d\tValidSignals: %x\n", pcmcia_power_table[n].PowerLevel, pcmcia_power_table[n].ValidSignals); } #endif } /* * pcmcia_find_cards() * check the adapter to see if there are cards present at * driver attach time. If there are, generate an artificial * card insertion event to get CS running and the PC Card ultimately * identified. */ void pcmcia_find_cards(anp_t *adapt) { int i; get_ss_status_t status; for (i = 0; i < pcmcia_num_sockets; i++) { if (pcmcia_sockets[i] && pcmcia_sockets[i]->ls_if == adapt->an_if) { /* check the status */ status.socket = i; if (SSGetStatus(&status) == SUCCESS && status.IFType != IF_CARDBUS && status.CardState & SBM_CD && pcmcia_sockets[i]->ls_dip[0] == NULL) { (void) cs_event(PCE_CARD_INSERT, i, 0); delay(1); } } } } /* * pcmcia_number_socket(dip, adapt) * we determine socket number by creating a driver for each * socket on the adapter and then forcing it to attach. This * results in an instance being assigned which becomes the * logical socket number. If it fails, then we are the first * set of sockets and renumbering occurs later. We do this * one socket at a time and return the dev_info_t so the * instance number can be used. */ dev_info_t * pcmcia_number_socket(dev_info_t *dip, int localsocket) { dev_info_t *child = NULL; struct pcmcia_parent_private *ppd; if (ndi_devi_alloc(dip, "pcs", (pnode_t)DEVI_SID_NODEID, &child) == NDI_SUCCESS) { ppd = kmem_zalloc(sizeof (struct pcmcia_parent_private), KM_SLEEP); ppd->ppd_reg = kmem_zalloc(sizeof (struct pcm_regs), KM_SLEEP); ppd->ppd_nreg = 1; ppd->ppd_reg[0].phys_hi = localsocket; ddi_set_parent_data(child, (caddr_t)ppd); if (ndi_devi_online(child, 0) != NDI_SUCCESS) { kmem_free(ppd->ppd_reg, sizeof (struct pcm_regs)); kmem_free(ppd, sizeof (struct pcmcia_parent_private)); (void) ndi_devi_free(child); child = NULL; } } return (child); } /* * pcm_phys_to_log_socket() * from an adapter and socket number return the logical socket */ int pcm_phys_to_log_socket(struct pcmcia_adapter *adapt, int socket) { register pcmcia_logical_socket_t *sockp; int i; for (i = 0, sockp = pcmcia_sockets[0]; i < pcmcia_num_sockets; i++, sockp = pcmcia_sockets[i]) { if (sockp == NULL) continue; if (sockp->ls_socket == socket && sockp->ls_adapter == adapt) break; } if (i >= pcmcia_num_sockets) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "\tbad socket/adapter: %x/%p != %x/%x\n", socket, (void *)adapt, pcmcia_num_sockets, pcmcia_num_adapters); #endif return (-1); } return (i); /* want logical socket */ } /* * pcm_adapter_callback() * this function is called back by the adapter driver at interrupt time. * It is here that events should get generated for the event manager if it * is present. It would also be the time where a device information * tree could be constructed for a card that was added in if we * choose to create them dynamically. */ #if defined(PCMCIA_DEBUG) char *cblist[] = { "removal", "insert", "ready", "battery-warn", "battery-dead", "status-change", "write-protect", "reset", "unlock", "client-info", "eject-complete", "eject-request", "erase-complete", "exclusive-complete", "exclusive-request", "insert-complete", "insert-request", "reset-complete", "reset-request", "timer-expired", "resume", "suspend" }; #endif /*ARGSUSED*/ static int pcm_adapter_callback(dev_info_t *dip, int adapter, int event, int socket) { pcmcia_logical_socket_t *sockp; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcm_adapter_callback: %p %x %x %x: ", (void *)dip, adapter, event, socket); cmn_err(CE_CONT, "[%s]\n", cblist[event]); } #endif if (adapter >= pcmcia_num_adapters || adapter < 0) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "\tbad adapter number: %d : %d\n", adapter, pcmcia_num_adapters); #endif return (1); } /* get the logical socket since that is what CS knows */ socket = pcm_phys_to_log_socket(pcmcia_adapters[adapter], socket); if (socket == -1) { cmn_err(CE_WARN, "pcmcia callback - bad logical socket\n"); return (0); } sockp = pcmcia_sockets[socket]; switch (event) { case -1: /* special case of adapter going away */ case PCE_CARD_INSERT: sockp->ls_cs_events |= PCE_E2M(PCE_CARD_INSERT) | PCE_E2M(PCE_CARD_REMOVAL); break; case PCE_CARD_REMOVAL: /* disable interrupts at this point */ sockp->ls_cs_events |= PCE_E2M(PCE_CARD_INSERT) | PCE_E2M(PCE_CARD_REMOVAL); /* remove children that never attached */ break; case PCE_PM_RESUME: pcmcia_do_resume(socket, sockp); /* event = PCE_CARD_INSERT; */ break; case PCE_PM_SUSPEND: pcmcia_do_suspend(socket, sockp); /* event = PCE_CARD_REMOVAL; */ break; default: /* nothing to do */ break; } #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "\tevent %d, event mask=%x, match=%x (log socket=%d)\n", event, (int)sockp->ls_cs_events, (int)(sockp->ls_cs_events & PCE_E2M(event)), socket); } #endif if (pcmcia_cs_event && sockp->ls_cs_events & (1 << event)) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "\tcalling CS event handler (%p) " "with event=%d\n", (void *)pcmcia_cs_event, event); #endif CS_EVENT(event, socket, 0); } /* let the event manager(s) know about the event */ pcm_event_manager(event, socket, NULL); return (0); } /* * pcm_event_manager() * checks for registered management driver callback handlers * if there are any, call them if the event warrants it */ void pcm_event_manager(int event, int socket, void *arg) { struct pcmcia_mif *mif; for (mif = pcmcia_mif_handlers; mif != NULL; mif = mif->mif_next) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcm_event_manager: event=%d, mif_events=%x" " (tst:%d)\n", event, (int)*(uint32_t *)mif->mif_events, PR_GET(mif->mif_events, event)); #endif if (PR_GET(mif->mif_events, event)) { mif->mif_function(mif->mif_id, event, socket, arg); } } } /* * pcm_search_devinfo(dev_info_t *, pcm_device_info *, int) * search for an immediate child node to the nexus and not siblings of nexus * and not grandchildren. We follow the same sequence that name binding * follows so we match same class of device (modem == modem) and don't * have to depend on features that might not exist. */ dev_info_t * pcm_search_devinfo(dev_info_t *self, struct pcm_device_info *info, int socket) { char bf[256]; struct pcmcia_parent_private *ppd; dev_info_t *dip; int circ; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcm_search_devinfo: socket=%x [%s|%s|%s] pd_flags=%x\n", socket, info->pd_bind_name, info->pd_generic_name, info->pd_vers1_name, info->pd_flags); #endif ndi_devi_enter(self, &circ); /* do searches in compatible property order */ for (dip = (dev_info_t *)DEVI(self)->devi_child; dip != NULL; dip = (dev_info_t *)DEVI(dip)->devi_sibling) { int ppd_socket; ppd = (struct pcmcia_parent_private *) ddi_get_parent_data(dip); if (ppd == NULL) { #if defined(PCMCIA_DEBUG) cmn_err(CE_WARN, "No parent private data\n"); #endif continue; } ppd_socket = CS_MAKE_SOCKET_NUMBER(ppd->ppd_socket, ppd->ppd_function); #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "\tbind=[%s], node=[%s]\n", DEVI(dip)->devi_binding_name, DEVI(dip)->devi_node_name); } #endif if (info->pd_flags & PCM_NAME_VERS1) { (void) strcpy(bf, info->pd_vers1_name); pcmcia_fix_string(bf); if (DEVI(dip)->devi_binding_name && strcmp(DEVI(dip)->devi_binding_name, bf) == 0 && socket == ppd_socket) break; } if ((info->pd_flags & (PCM_NAME_1275 | PCM_MULTI_FUNCTION)) == (PCM_NAME_1275 | PCM_MULTI_FUNCTION)) { (void) sprintf(bf, "%s,%x", info->pd_bind_name, info->pd_function); if (strcmp(bf, DEVI(dip)->devi_binding_name) == 0 && socket == ppd->ppd_socket) break; } if (info->pd_flags & PCM_NAME_1275) { if (DEVI(dip)->devi_binding_name && strcmp(DEVI(dip)->devi_binding_name, info->pd_bind_name) == 0 && socket == ppd_socket) break; } if (info->pd_flags & PCM_NAME_GENERIC) { (void) sprintf(bf, "%s,%s", PCMDEV_NAMEPREF, info->pd_generic_name); if (DEVI(dip)->devi_binding_name && strcmp(DEVI(dip)->devi_binding_name, bf) == 0 && socket == ppd_socket) break; } if (info->pd_flags & PCM_NAME_GENERIC) { if (DEVI(dip)->devi_binding_name && strcmp(DEVI(dip)->devi_binding_name, info->pd_generic_name) == 0 && socket == ppd_socket) break; } if (info->pd_flags & PCM_NO_CONFIG) { if (DEVI(dip)->devi_binding_name && strcmp(DEVI(dip)->devi_binding_name, "pccard,memory") == 0 && socket == ppd_socket) break; } } ndi_devi_exit(self, circ); return (dip); } /* * pcm_find_devinfo() * this is a wrapper around DDI calls to "find" any * devinfo node and then from there find the one associated * with the socket */ dev_info_t * pcm_find_devinfo(dev_info_t *pdip, struct pcm_device_info *info, int socket) { dev_info_t *dip; dip = pcm_search_devinfo(pdip, info, socket); if (dip == NULL) return (NULL); /* * we have at least a base level dip * see if there is one (this or a sibling) * that has the correct socket number * if there is, return that one else * NULL so a new one is created */ #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "find: initial dip = %p, socket=%d, name=%s " "(instance=%d, socket=%d, name=%s)\n", (void *)dip, socket, info->pd_bind_name, ddi_get_instance(dip), ddi_getprop(DDI_DEV_T_ANY, dip, DDI_PROP_DONTPASS, PCM_DEV_SOCKET, -1), ddi_get_name(dip)); #endif #if defined(PCMCIA_DEBUG) if (pcmcia_debug && dip != NULL) cmn_err(CE_CONT, "\treturning non-NULL dip (%s)\n", ddi_get_name(dip)); #endif return (dip); } /* * pcm_find_parent_dip(socket) * find the correct parent dip for this logical socket */ dev_info_t * pcm_find_parent_dip(int socket) { if ((socket < 0 || socket >= pcmcia_num_sockets) || pcmcia_sockets[socket] == NULL) return (NULL); return (pcmcia_sockets[socket]->ls_adapter->pca_dip); } /* * pcmcia_set_em_handler() * This is called by the management and event driver to tell * the nexus what to call. Multiple drivers are allowed * but normally only one will exist. */ int pcmcia_set_em_handler(int (*handler)(), caddr_t events, int elen, uint32_t id, void **cs, void **ss) { struct pcmcia_mif *mif, *tmp; if (handler == NULL) { /* NULL means remove the handler based on the ID */ if (pcmcia_mif_handlers == NULL) return (0); mutex_enter(&pcmcia_global_lock); if (pcmcia_mif_handlers->mif_id == id) { mif = pcmcia_mif_handlers; pcmcia_mif_handlers = mif->mif_next; kmem_free(mif, sizeof (struct pcmcia_mif)); } else { for (mif = pcmcia_mif_handlers; mif->mif_next != NULL && mif->mif_next->mif_id != id; mif = mif->mif_next) ; if (mif->mif_next != NULL && mif->mif_next->mif_id == id) { tmp = mif->mif_next; mif->mif_next = tmp->mif_next; kmem_free(tmp, sizeof (struct pcmcia_mif)); } } mutex_exit(&pcmcia_global_lock); } else { if (pcmcia_num_adapters == 0) { return (ENXIO); } if (elen > EM_EVENTSIZE) return (EINVAL); mif = (struct pcmcia_mif *) kmem_zalloc(sizeof (struct pcmcia_mif), KM_NOSLEEP); if (mif == NULL) return (ENOSPC); mif->mif_function = (void (*)())handler; bcopy(events, mif->mif_events, elen); mif->mif_id = id; mutex_enter(&pcmcia_global_lock); mif->mif_next = pcmcia_mif_handlers; pcmcia_mif_handlers = mif; if (cs != NULL) *cs = (void *)pcmcia_card_services; if (ss != NULL) { *ss = (void *)SocketServices; } mutex_exit(&pcmcia_global_lock); } return (0); } /* * pcm_fix_bits(uchar_t *data, int num, int dir) * shift socket bits left(0) or right(0) * This is used when mapping logical and physical */ void pcm_fix_bits(socket_enum_t src, socket_enum_t dst, int num, int dir) { int i; PR_ZERO(dst); if (dir == 0) { /* LEFT */ for (i = 0; i <= (sizeof (dst) * PR_WORDSIZE) - num; i++) { if (PR_GET(src, i)) PR_SET(dst, i + num); } } else { /* RIGHT */ for (i = num; i < sizeof (dst) * PR_WORDSIZE; i++) { if (PR_GET(src, i)) PR_SET(dst, i - num); } } } uint32_t genmask(int len) { uint32_t mask; for (mask = 0; len > 0; len--) { mask |= 1 << (len - 1); } return (mask); } int genp2(int val) { int i; if (val == 0) return (0); for (i = 0; i < 32; i++) if (val > (1 << i)) return (i); return (0); } #if defined(PCMCIA_DEBUG) char *ssfuncs[128] = { "GetAdapter", "GetPage", "GetSocket", "GetStatus", "GetWindow", "InquireAdapter", "InquireSocket", "InquireWindow", "ResetSocket", "SetPage", "SetAdapter", "SetSocket", "SetWindow", "SetIRQHandler", "ClearIRQHandler", /* 15 */ NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, /* 25 */ NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, /* 35 */ NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, /* 45 */ NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, /* 55 */ NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, /* 65 */ NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, /* 75 */ NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, /* 85 */ NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, /* 95 */ NULL, NULL, NULL, "CSIsActiveDip", "CSInitDev", "CSRegister", "CSCISInit", "CSUnregister", "CISGetAddress", "CISSetAddress", "CSCardRemoved", "CSGetCookiesAndDip" }; #endif /* * SocketServices * general entrypoint for Card Services to find * Socket Services. Finding the entry requires * a _depends_on[] relationship. * * In some cases, the work is done locally but usually * the parameters are adjusted and the adapter driver * code asked to do the work. */ int SocketServices(int function, ...) { va_list arglist; uint32_t args[16]; csregister_t *reg; sservice_t *serv; dev_info_t *dip; int socket, func; int error = SUCCESS; pcmcia_logical_socket_t *sockp; va_start(arglist, function); #if defined(PCMCIA_DEBUG) if (pcmcia_debug > 1) cmn_err(CE_CONT, "SocketServices called for function %d [%s]\n", function, ((function < 128) && ssfuncs[function] != NULL) ? ssfuncs[function] : "UNKNOWN"); #endif switch (function) { case CSRegister: case CISGetAddress: case CISSetAddress: reg = va_arg(arglist, csregister_t *); if (reg->cs_magic != PCCS_MAGIC || reg->cs_version != PCCS_VERSION) { cmn_err(CE_WARN, "pcmcia: CSRegister (%x, %x, %p, %p) *ERROR*", reg->cs_magic, reg->cs_version, (void *)reg->cs_card_services, (void *)reg->cs_event); error = BAD_FUNCTION; break; } switch (function) { case CISGetAddress: reg->cs_event = pcmcia_cis_parser; break; case CISSetAddress: pcmcia_cis_parser = reg->cs_event; break; case CSRegister: break; } break; case CSUnregister: break; case CSCISInit: args[0] = va_arg(arglist, int); #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "CSCISInit: CIS is initialized on socket %d\n", (int)args[0]); #endif /* * now that the CIS has been parsed (there may not * be one but the work is done) we can create the * device information structures. * * we serialize the node creation to avoid problems * with initial probe/attach of nexi. */ mutex_enter(&pcmcia_global_lock); pcmcia_create_dev_info(args[0]); cv_broadcast(&pcmcia_condvar); /* wakeup the nexus attach */ mutex_exit(&pcmcia_global_lock); break; case CSInitDev: #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "CSInitDev: initialize device\n"); #endif /* * this is where we create the /devices entries * that let us out into the world */ (void) pcmcia_create_device(va_arg(arglist, ss_make_device_node_t *)); break; case CSCardRemoved: args[0] = va_arg(arglist, uint32_t); socket = CS_GET_SOCKET_NUMBER(args[0]); func = CS_GET_FUNCTION_NUMBER(args[0]); #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "CSCardRemoved! (socket=%d)\n", (int)args[0]); #endif if (socket >= pcmcia_num_sockets) break; sockp = pcmcia_sockets[socket]; if (sockp == NULL) { cmn_err(CE_WARN, "pcmcia: bad socket = %x", socket); break; } if (!(sockp->ls_flags & PCS_SUSPENDED)) { for (func = 0; func < sockp->ls_functions; func++) { /* * break the association of dip and socket * for all functions on that socket */ dip = sockp->ls_dip[func]; sockp->ls_dip[func] = NULL; if (dip != NULL) { struct pcmcia_parent_private *ppd; ppd = (struct pcmcia_parent_private *) ddi_get_parent_data(dip); ppd->ppd_active = 0; (void) ndi_devi_offline(dip, NDI_DEVI_REMOVE); pcmcia_ppd_free(ppd); } #if defined(PCMCIA_DEBUG) else { if (pcmcia_debug) cmn_err(CE_CONT, "CardRemoved: no " "dip present " "on socket %d!\n", (int)args[0]); } #endif } } else { mutex_enter(&pcmcia_global_lock); sockp->ls_flags &= ~PCS_SUSPENDED; cv_broadcast(&pcmcia_condvar); mutex_exit(&pcmcia_global_lock); } break; case CSGetCookiesAndDip: serv = va_arg(arglist, sservice_t *); if (serv != NULL) error = GetCookiesAndDip(serv); else error = BAD_SOCKET; break; case CSGetActiveDip: /* * get the dip associated with the card currently * in the specified socket */ args[0] = va_arg(arglist, uint32_t); socket = CS_GET_SOCKET_NUMBER(args[0]); func = CS_GET_FUNCTION_NUMBER(args[0]); error = (long)pcmcia_sockets[socket]->ls_dip[func]; break; /* * the remaining entries are SocketServices calls */ case SS_GetAdapter: error = SSGetAdapter(va_arg(arglist, get_adapter_t *)); break; case SS_GetPage: error = SSGetPage(va_arg(arglist, get_page_t *)); break; case SS_GetSocket: error = SSGetSocket(va_arg(arglist, get_socket_t *)); break; case SS_GetStatus: error = SSGetStatus(va_arg(arglist, get_ss_status_t *)); break; case SS_GetWindow: error = SSGetWindow(va_arg(arglist, get_window_t *)); break; case SS_InquireAdapter: error = SSInquireAdapter(va_arg(arglist, inquire_adapter_t *)); break; case SS_InquireSocket: error = SSInquireSocket(va_arg(arglist, inquire_socket_t *)); break; case SS_InquireWindow: error = SSInquireWindow(va_arg(arglist, inquire_window_t *)); break; case SS_ResetSocket: args[0] = va_arg(arglist, uint32_t); args[1] = va_arg(arglist, int); error = SSResetSocket(args[0], args[1]); break; case SS_SetPage: error = SSSetPage(va_arg(arglist, set_page_t *)); break; case SS_SetSocket: error = SSSetSocket(va_arg(arglist, set_socket_t *)); break; case SS_SetWindow: error = SSSetWindow(va_arg(arglist, set_window_t *)); break; case SS_SetIRQHandler: error = SSSetIRQHandler(va_arg(arglist, set_irq_handler_t *)); break; case SS_ClearIRQHandler: error = SSClearIRQHandler(va_arg(arglist, clear_irq_handler_t *)); break; default: error = BAD_FUNCTION; break; } va_end(arglist); return (error); } /* * pcmcia_merge_power() * The adapters may have different power tables so it * is necessary to construct a single power table that * can be used throughout the system. The result is * a merger of all capabilities. The nexus adds * power table entries one at a time. */ void pcmcia_merge_power(struct power_entry *power) { int i; struct power_entry pwr; pwr = *power; for (i = 0; i < pcmcia_num_power; i++) { if (pwr.PowerLevel == pcmcia_power_table[i].PowerLevel) { if (pwr.ValidSignals == pcmcia_power_table[i].ValidSignals) { return; } else { /* partial match */ pwr.ValidSignals &= ~pcmcia_power_table[i].ValidSignals; } } } /* what's left becomes a new entry */ if (pcmcia_num_power == PCMCIA_MAX_POWER) return; pcmcia_power_table[pcmcia_num_power++] = pwr; } /* * pcmcia_do_suspend() * tell CS that a suspend has happened by passing a * card removal event. Then cleanup the socket state * to fake the cards being removed so resume works */ void pcmcia_do_suspend(int socket, pcmcia_logical_socket_t *sockp) { get_ss_status_t stat; struct pcmcia_adapter *adapt; pcmcia_if_t *ls_if; dev_info_t *dip; int i; #ifdef XXX if (pcmcia_cs_event == NULL) { return; } #endif ls_if = sockp->ls_if; adapt = sockp->ls_adapter; if (ls_if == NULL || ls_if->pcif_get_status == NULL) { return; } stat.socket = socket; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_do_suspend(%d, %p)\n", socket, (void *)sockp); } #endif if (GET_STATUS(ls_if, adapt->pca_dip, &stat) != SUCCESS) return; /* * If there is a card in the socket, then we need to send * everyone a PCE_CARD_REMOVAL event, and remove the * card active property. */ for (i = 0; i < sockp->ls_functions; i++) { struct pcmcia_parent_private *ppd; dip = sockp->ls_dip[i]; if (dip != NULL) { ppd = (struct pcmcia_parent_private *) ddi_get_parent_data(dip); ppd->ppd_flags |= PPD_SUSPENDED; } #if 0 sockp->ls_dip[i] = NULL; #endif } sockp->ls_flags |= PCS_SUSPENDED; if (pcmcia_cs_event && (sockp->ls_cs_events & (1 << PCE_PM_SUSPEND))) { CS_EVENT(PCE_PM_SUSPEND, socket, 0); } pcm_event_manager(PCE_PM_SUSPEND, socket, NULL); } /* * pcmcia_do_resume() * tell CS that a suspend has happened by passing a * card removal event. Then cleanup the socket state * to fake the cards being removed so resume works */ void pcmcia_do_resume(int socket, pcmcia_logical_socket_t *sockp) { get_ss_status_t stat; struct pcmcia_adapter *adapt; pcmcia_if_t *ls_if; #ifdef XXX if (pcmcia_cs_event == NULL) { return; } #endif ls_if = sockp->ls_if; adapt = sockp->ls_adapter; if (ls_if == NULL || ls_if->pcif_get_status == NULL) { return; } stat.socket = socket; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_do_resume(%d, %p)\n", socket, (void *)sockp); } #endif if (GET_STATUS(ls_if, adapt->pca_dip, &stat) == SUCCESS) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "\tsocket=%x, CardState=%x\n", socket, stat.CardState); #endif #if 0 /* now have socket info -- do we have events? */ if ((stat.CardState & SBM_CD) == SBM_CD) { if (pcmcia_cs_event && (sockp->ls_cs_events & (1 << PCE_CARD_INSERT))) { CS_EVENT(PCE_CARD_INSERT, socket, 0); } /* we should have card removed from CS soon */ pcm_event_manager(PCE_CARD_INSERT, socket, NULL); } #else if (pcmcia_cs_event && (sockp->ls_cs_events & (1 << PCE_PM_SUSPEND))) { CS_EVENT(PCE_PM_RESUME, socket, 0); CS_EVENT(PCE_CARD_REMOVAL, socket, 0); if ((stat.CardState & SBM_CD) == SBM_CD) CS_EVENT(PCE_CARD_INSERT, socket, 0); } #endif } } /* * pcmcia_map_power_set() * Given a power table entry and level, find it in the * master table and return the index in the adapter table. */ static int pcmcia_map_power_set(struct pcmcia_adapter *adapt, int level, int which) { int plevel, i; struct power_entry *pwr = (struct power_entry *)adapt->pca_power; plevel = pcmcia_power_table[level].PowerLevel; /* mask = pcmcia_power_table[level].ValidSignals; */ for (i = 0; i < adapt->pca_numpower; i++) if (plevel == pwr[i].PowerLevel && pwr[i].ValidSignals & which) return (i); return (0); } /* * pcmcia_map_power_get() * Given an adapter power entry, find the appropriate index * in the master table. */ static int pcmcia_map_power_get(struct pcmcia_adapter *adapt, int level, int which) { int plevel, i; struct power_entry *pwr = (struct power_entry *)adapt->pca_power; plevel = pwr[level].PowerLevel; /* mask = pwr[level].ValidSignals; */ for (i = 0; i < pcmcia_num_power; i++) if (plevel == pcmcia_power_table[i].PowerLevel && pcmcia_power_table[i].ValidSignals & which) return (i); return (0); } /* * XXX - SS really needs a way to allow the caller to express * interest in PCE_CARD_STATUS_CHANGE events. */ static uint32_t pcm_event_map[32] = { PCE_E2M(PCE_CARD_WRITE_PROTECT)|PCE_E2M(PCE_CARD_STATUS_CHANGE), PCE_E2M(PCE_CARD_UNLOCK)|PCE_E2M(PCE_CARD_STATUS_CHANGE), PCE_E2M(PCE_EJECTION_REQUEST)|PCE_E2M(PCE_CARD_STATUS_CHANGE), PCE_E2M(PCE_INSERTION_REQUEST)|PCE_E2M(PCE_CARD_STATUS_CHANGE), PCE_E2M(PCE_CARD_BATTERY_WARN)|PCE_E2M(PCE_CARD_STATUS_CHANGE), PCE_E2M(PCE_CARD_BATTERY_DEAD)|PCE_E2M(PCE_CARD_STATUS_CHANGE), PCE_E2M(PCE_CARD_READY)|PCE_E2M(PCE_CARD_STATUS_CHANGE), PCE_E2M(PCE_CARD_REMOVAL)|PCE_E2M(PCE_CARD_INSERT)| PCE_E2M(PCE_CARD_STATUS_CHANGE), PCE_E2M(PCE_PM_SUSPEND)|PCE_E2M(PCE_PM_RESUME), }; static int pcm_mapevents(uint32_t eventmask) { uint32_t mask; int i; for (i = 0, mask = 0; eventmask && i < 32; i++) { if (eventmask & (1 << i)) { mask |= pcm_event_map[i]; eventmask &= ~(1 << i); } } return (mask); } /* * PCMCIA Generic Naming Support * * With 2.6, PCMCIA naming moves to the 1275 and generic naming model. * Consequently, the whole naming mechanism is to be changed. This is * not backward compatible with the current names but that isn't a problem * due to so few drivers existing. * * For cards with a device_id tuple, a generic name will be used. * if there is no device_id, then the 1275 name will be used if possible. * The 1275 name is of the form pccardNNNN,MMMM from the manfid tuple. * if there is not manfid tuple, an attempt will be made to bind the * node to the version_1 strings. * * In all cases, a "compatible" property is created with a number * of names. The most generic name will be last in the list. */ /* * pcmcia_fix_string() * want to avoid special characters in alias strings so convert * to something innocuous */ void pcmcia_fix_string(char *str) { for (; str && *str; str++) { switch (*str) { case ' ': case '\t': *str = '_'; break; } } } void pcmcia_1275_name(int socket, struct pcm_device_info *info, client_handle_t handle) { cistpl_manfid_t manfid; cistpl_jedec_t jedec; tuple_t tuple; int i; tuple.Socket = socket; /* get MANFID if it exists -- this is most important form */ tuple.DesiredTuple = CISTPL_MANFID; tuple.Attributes = 0; if ((i = csx_GetFirstTuple(handle, &tuple)) == SUCCESS) { i = csx_Parse_CISTPL_MANFID(handle, &tuple, &manfid); if (i == SUCCESS) { (void) sprintf(info->pd_bind_name, "%s%x,%x", PCMDEV_NAMEPREF, manfid.manf, manfid.card); info->pd_flags |= PCM_NAME_1275; } } else { tuple.Attributes = 0; tuple.DesiredTuple = CISTPL_JEDEC_A; if ((i = csx_GetFirstTuple(handle, &tuple)) == SUCCESS) { i = csx_Parse_CISTPL_JEDEC_A(handle, &tuple, &jedec); if (i == SUCCESS) { (void) sprintf(info->pd_bind_name, "%s%x,%x", PCMDEV_NAMEPREF, jedec.jid[0].id, jedec.jid[0].info); info->pd_flags |= PCM_NAME_1275; } } } } void pcmcia_vers1_name(int socket, struct pcm_device_info *info, client_handle_t handle) { cistpl_vers_1_t vers1; tuple_t tuple; int which = 0; int i, len, space; tuple.Socket = socket; info->pd_vers1_name[0] = '\0'; /* Version 1 strings */ tuple.DesiredTuple = CISTPL_VERS_1; tuple.Attributes = 0; if (!which && (i = csx_GetFirstTuple(handle, &tuple)) == SUCCESS) { i = csx_Parse_CISTPL_VERS_1(handle, &tuple, &vers1); if (i == SUCCESS) { for (i = 0, len = 0, space = 0; i < vers1.ns; i++) { if ((space + len + strlen(info->pd_vers1_name)) >= sizeof (info->pd_vers1_name)) break; if (space) { info->pd_vers1_name[len++] = ','; } (void) strcpy(info->pd_vers1_name + len, (char *)vers1.pi[i]); len += strlen((char *)vers1.pi[i]); /* strip trailing spaces off of string */ while (info->pd_vers1_name[len - 1] == ' ' && len > 0) len--; space = 1; } info->pd_vers1_name[len] = '\0'; info->pd_flags |= PCM_NAME_VERS1; } } } int pcmcia_get_funce(client_handle_t handle, tuple_t *tuple) { int ret = 0; tuple->Attributes = 0; while (csx_GetNextTuple(handle, tuple) == SUCCESS) { if (tuple->TupleCode == CISTPL_FUNCID) { break; } if (tuple->TupleCode == CISTPL_FUNCE) { ret = 1; break; } tuple->Attributes = 0; } return (ret); } char *pcmcia_lan_types[] = { "arcnet", "ethernet", "token-ring", "localtalk", "fddi", "atm", "wireless", "reserved" }; void pcmcia_generic_name(int socket, struct pcm_device_info *info, client_handle_t handle) { cistpl_funcid_t funcid; cistpl_funce_t funce; tuple_t tuple; int which = 0; int i; tuple.Socket = socket; tuple.DesiredTuple = CISTPL_FUNCID; tuple.Attributes = 0; if ((i = csx_GetFirstTuple(handle, &tuple)) == SUCCESS) { /* * need to make sure that CISTPL_FUNCID is not * present in both a global and local CIS for MF * cards. 3COM seems to do this erroneously */ if (info->pd_flags & PCM_MULTI_FUNCTION && tuple.Flags & CISTPLF_GLOBAL_CIS) { tuple_t ltuple; ltuple = tuple; ltuple.DesiredTuple = CISTPL_FUNCID; ltuple.Attributes = 0; if ((i = csx_GetNextTuple(handle, <uple)) == SUCCESS) { /* this is the per-function funcid */ tuple = ltuple; } } i = csx_Parse_CISTPL_FUNCID(handle, &tuple, &funcid); if (i == SUCCESS) { /* in case no function extension */ if (funcid.function < PCM_GENNAME_SIZE) (void) strcpy(info->pd_generic_name, pcmcia_generic_names[funcid.function]); else (void) sprintf(info->pd_generic_name, "class,%x", funcid.function); } info->pd_type = funcid.function; switch (funcid.function) { case TPLFUNC_LAN: which = pcmcia_get_funce(handle, &tuple); if (which) { i = csx_Parse_CISTPL_FUNCE(handle, &tuple, &funce, TPLFUNC_LAN); if (i == SUCCESS) { i = funce.data.lan.tech; if (i > sizeof (pcmcia_lan_types) / sizeof (char *)) { break; } (void) strcpy(info->pd_generic_name, pcmcia_lan_types[i]); } } break; case TPLFUNC_VIDEO: #ifdef future_pcmcia_spec which = pcmcia_get_funce(handle, &tuple); if (which) { i = csx_Parse_CISTPL_FUNCE(handle, &tuple, &funce, TPLFUNC_VIDEO); if (i == SUCCESS) { i = funce.video.tech; if (i > sizeof (pcmcia_lan_types) / sizeof (char *)) { break; } (void) strcpy(info->pd_generic_names, pcmcia_lan_types[i]); } } #endif break; } info->pd_flags |= PCM_NAME_GENERIC; } else { /* if no FUNCID, do we have CONFIG */ tuple.DesiredTuple = CISTPL_CONFIG; tuple.Attributes = 0; if (csx_GetFirstTuple(handle, &tuple) != SUCCESS) { info->pd_flags |= PCM_NO_CONFIG | PCM_NAME_GENERIC; (void) strcpy(info->pd_generic_name, pcmcia_generic_names[PCM_TYPE_MEMORY]); info->pd_type = PCM_TYPE_MEMORY; } } } /* * pcmcia_add_compatible() * add the cached compatible property list. */ void pcmcia_add_compatible(dev_info_t *dip, struct pcm_device_info *info) { int length = 0, i; char buff[MAXNAMELEN]; char *compat_name[8]; int ci = 0; bzero(compat_name, sizeof (compat_name)); if (info->pd_flags & PCM_NAME_VERS1) { (void) sprintf(buff, "%s,%s", PCMDEV_NAMEPREF, info->pd_vers1_name); pcmcia_fix_string(buff); /* don't want spaces */ length = strlen(buff) + 1; compat_name[ci] = kmem_alloc(length, KM_SLEEP); (void) strcpy(compat_name[ci++], buff); } if ((info->pd_flags & (PCM_NAME_1275 | PCM_MULTI_FUNCTION)) == (PCM_NAME_1275 | PCM_MULTI_FUNCTION)) { (void) sprintf(buff, "%s,%x", info->pd_bind_name, info->pd_function); length = strlen(buff) + 1; compat_name[ci] = kmem_alloc(length, KM_SLEEP); (void) strcpy(compat_name[ci++], buff); } if (info->pd_flags & PCM_NAME_1275) { length = strlen(info->pd_bind_name) + 1; compat_name[ci] = kmem_alloc(length, KM_SLEEP); (void) strcpy(compat_name[ci++], info->pd_bind_name); } if (info->pd_flags & PCM_NAME_GENERIC) { if (strncmp(info->pd_generic_name, "class,", 6) == 0) { /* no generic without "pccard" */ (void) sprintf(buff, "%s%s", PCMDEV_NAMEPREF, info->pd_generic_name); } else { /* first pccard,generic-name */ (void) sprintf(buff, "%s,%s", PCMDEV_NAMEPREF, info->pd_generic_name); } length = strlen(buff) + 1; compat_name[ci] = kmem_alloc(length, KM_SLEEP); (void) strcpy(compat_name[ci++], buff); /* now the simple generic name */ length = strlen(info->pd_generic_name) + 1; compat_name[ci] = kmem_alloc(length, KM_SLEEP); (void) strcpy(compat_name[ci++], info->pd_generic_name); } if (info->pd_flags & PCM_NO_CONFIG) { char *mem = "pccard,memory"; /* * I/O cards are required to have a config tuple. * there are some that violate the spec and don't * but it is most likely that this is a memory card * so tag it as such. "memory" is more general * than other things so needs to come last. */ length = strlen(mem) + 1; compat_name[ci] = kmem_alloc(length, KM_SLEEP); (void) strcpy(compat_name[ci++], mem); } if (ci == 0) return; if (ndi_prop_update_string_array(DDI_DEV_T_NONE, dip, "compatible", (char **)compat_name, ci) != DDI_PROP_SUCCESS) cmn_err(CE_WARN, "pcmcia: unable to create compatible prop"); for (i = 0; i < ci; i++) kmem_free(compat_name[i], strlen(compat_name[i]) + 1); } /* * CIS parsing and other PC Card specific code */ /* * pcmcia_get_mem_regs() */ static int pcmcia_get_mem_regs(struct pcm_regs *regs, struct pcm_device_info *info, int type, int pctype) { int num_regs = 0; tuple_t tuple; cistpl_device_t device; uint32_t curr_base; int ret, len; int space; /* * current plan for reg spec: * device_a will be accumulated to determine max size of * attribute memory. device for common. Then config * tuples to get a worst case I/O size. */ bzero(&tuple, sizeof (tuple)); tuple.Socket = info->pd_socket; tuple.DesiredTuple = (cisdata_t)type; space = (type == CISTPL_DEVICE_A) ? PC_REG_SPACE_ATTRIBUTE : PC_REG_SPACE_MEMORY; if ((ret = csx_GetFirstTuple(info->pd_handle, &tuple)) == CS_SUCCESS) { bzero(&device, sizeof (device)); if (type == CISTPL_DEVICE) ret = csx_Parse_CISTPL_DEVICE(info->pd_handle, &tuple, &device); else ret = csx_Parse_CISTPL_DEVICE_A(info->pd_handle, &tuple, &device); if (ret == CS_SUCCESS) { curr_base = 0; for (ret = 0; ret < device.num_devices; ret++) { /* need to order these for real mem first */ if (device.devnode[ret].type != CISTPL_DEVICE_DTYPE_NULL) { /* how to represent types??? */ regs[num_regs].phys_hi = PC_REG_PHYS_HI(0, 0, pctype, space, info->pd_socket, info->pd_function, 0); regs[num_regs].phys_lo = curr_base; len = device.devnode[ret].size_in_bytes; curr_base += len; regs[num_regs].phys_len = len; num_regs++; } else { /* * NULL device is a "hole" */ curr_base += device.devnode[ret].size_in_bytes; } } } } return (num_regs); } /* * */ static int pcmcia_get_io_regs(struct pcm_regs *regs, struct pcm_device_info *info, int pctype) { int num_regs = 0; tuple_t tuple; uint32_t curr_base; int len, curr, i, curr_len; cistpl_config_t config; cistpl_cftable_entry_t cftable; struct pcm_regs tmp[16]; int found = 0; bzero(&tuple, sizeof (tuple)); tuple.DesiredTuple = CISTPL_CONFIG; tuple.Socket = info->pd_socket; tuple.Attributes = 0; curr_base = 0; len = 0; if (csx_GetFirstTuple(info->pd_handle, &tuple) == CS_SUCCESS) { if (csx_Parse_CISTPL_CONFIG(info->pd_handle, &tuple, &config) != CS_SUCCESS) { info->pd_flags |= PCM_NO_CONFIG; /* must be memory */ return (0); } curr = 0; tuple.DesiredTuple = CISTPL_CFTABLE_ENTRY; tuple.Socket = info->pd_socket; tuple.Attributes = 0; bzero(tmp, sizeof (tmp)); while (csx_GetNextTuple(info->pd_handle, &tuple) == CS_SUCCESS) { bzero(&cftable, sizeof (cftable)); if (csx_Parse_CISTPL_CFTABLE_ENTRY(info->pd_handle, &tuple, &cftable) == CS_SUCCESS) { if (cftable.flags & CISTPL_CFTABLE_TPCE_FS_IO) { /* we have an I/O entry */ if (cftable.io.flags & CISTPL_CFTABLE_TPCE_FS_IO_RANGE) { len = cftable.io.addr_lines; if (len != 0) len = 1 << len; for (i = 0; i < cftable.io.ranges && curr < 16; i++) { curr_base = cftable.io.range[i].addr; curr_len = cftable.io.range[i].length; if (curr_len == 0) curr_len = len; if (len != 0 || cftable.io.addr_lines == 0) { /* we have potential relocation */ int mask; mask = cftable.io.addr_lines ? cftable.io.addr_lines : genp2(len); mask = genmask(mask); if ((mask & curr_base) == 0) { /* more accurate length */ regs->phys_len = curr_len; regs->phys_lo = 0; regs->phys_hi = PC_REG_PHYS_HI(0, 0, pctype, PC_REG_SPACE_IO, info->pd_socket, info->pd_function, 0); num_regs++; found = 2; break; } } tmp[curr].phys_len = curr_len; tmp[curr].phys_lo = curr_base; curr++; found = 1; } if (found == 2) break; } else { /* no I/O range so just a mask */ regs->phys_len = 1 << cftable.io.addr_lines; regs->phys_hi = PC_REG_PHYS_HI(0, 0, pctype, PC_REG_SPACE_IO, info->pd_socket, info->pd_function, 0); regs->phys_lo = 0; num_regs++; regs++; /* quit on "good" entry */ break; } /* was this the last CFTABLE Entry? */ if (config.last == cftable.index) break; } } } if (found == 1) { /* * have some non-relocatable values * so we include them all for now */ for (i = 0; i < curr && num_regs < 8; i++) { regs->phys_len = tmp[i].phys_len; regs->phys_lo = tmp[i].phys_lo; regs->phys_hi = PC_REG_PHYS_HI(1, 0, pctype, PC_REG_SPACE_IO, info->pd_socket, info->pd_function, 0); regs++; num_regs++; } } } return (num_regs); } /* * pcmcia_create_regs() * create a valid set of regspecs for the card * The first one is always for CIS access and naming */ /*ARGSUSED*/ static void pcmcia_find_regs(dev_info_t *dip, struct pcm_device_info *info, struct pcmcia_parent_private *ppd) { struct pcm_regs regs[32]; /* assume worst case */ int num_regs = 0; int len; int bustype; if (ppd->ppd_flags & PPD_CARD_CARDBUS) { /* always have a CIS map */ regs[0].phys_hi = PC_REG_PHYS_HI(0, 0, PC_REG_TYPE_CARDBUS, PC_REG_SPACE_CONFIG, info->pd_socket, info->pd_function, 0); bustype = PC_REG_TYPE_CARDBUS; } else { /* always have a CIS map */ regs[0].phys_hi = PC_REG_PHYS_HI(0, 0, PC_REG_TYPE_16BIT, PC_REG_SPACE_ATTRIBUTE, info->pd_socket, info->pd_function, 0); bustype = PC_REG_TYPE_16BIT; } regs[0].phys_lo = 0; /* always starts at zero */ regs[0].phys_len = 0; num_regs++; /* * need to search CIS for other memory instances */ if (info->pd_flags & PCM_OTHER_NOCIS) { /* special case of memory only card without CIS */ regs[1].phys_hi = PC_REG_PHYS_HI(0, 0, PC_REG_TYPE_16BIT, PC_REG_SPACE_MEMORY, info->pd_socket, info->pd_function, 0); regs[1].phys_lo = 0; regs[1].phys_len = PCM_MAX_R2_MEM; num_regs++; } else { /* * want to get any other memory and/or I/O regions * on the card and represent them here. */ num_regs += pcmcia_get_mem_regs(®s[num_regs], info, CISTPL_DEVICE_A, bustype); num_regs += pcmcia_get_mem_regs(®s[num_regs], info, CISTPL_DEVICE, bustype); /* now look for an I/O space to configure */ num_regs += pcmcia_get_io_regs(®s[num_regs], info, bustype); } len = num_regs * sizeof (uint32_t) * 3; ppd->ppd_nreg = num_regs; ppd->ppd_reg = kmem_alloc(len, KM_SLEEP); bcopy(regs, ppd->ppd_reg, len); len = sizeof (struct pcm_regs) * ppd->ppd_nreg; ppd->ppd_assigned = kmem_zalloc(len, KM_SLEEP); } /* * pcmcia_need_intr() * check to see if an interrupt tuple exists. * existence means we need one in the intrspec. */ static int pcmcia_need_intr(int socket, struct pcm_device_info *info) { cistpl_config_t config; cistpl_cftable_entry_t cftable; tuple_t tuple; int i; bzero(&tuple, sizeof (tuple)); tuple.DesiredTuple = CISTPL_CONFIG; tuple.Socket = socket; tuple.Attributes = 0; if (csx_GetFirstTuple(info->pd_handle, &tuple) != CS_SUCCESS) { return (0); } #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_need_intr: have config tuple\n"); } #endif bzero(&config, sizeof (config)); if (csx_Parse_CISTPL_CONFIG(info->pd_handle, &tuple, &config) != CS_SUCCESS) { cmn_err(CE_WARN, "pcmcia: config failed to parse\n"); return (0); } for (cftable.index = (int)-1, i = -1; i != config.last; i = cftable.index) { tuple.DesiredTuple = CISTPL_CFTABLE_ENTRY; tuple.Attributes = 0; if (csx_GetNextTuple(info->pd_handle, &tuple) != CS_SUCCESS) { cmn_err(CE_WARN, "pcmcia: get cftable failed\n"); break; } bzero(&cftable, sizeof (cftable)); if (csx_Parse_CISTPL_CFTABLE_ENTRY(info->pd_handle, &tuple, &cftable) != CS_SUCCESS) { cmn_err(CE_WARN, "pcmcia: parse cftable failed\n"); break; } #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "\t%x: flags=%x (%x)\n", i, cftable.flags, cftable.flags & CISTPL_CFTABLE_TPCE_FS_IRQ); #endif if (cftable.flags & CISTPL_CFTABLE_TPCE_FS_IRQ) return (1); } return (0); } /* * pcmcia_num_funcs() * look for a CISTPL_LONGLINK_MFC * if there is one, return the number of functions * if there isn't one, then there is one function */ static int pcmcia_num_funcs(int socket, client_handle_t handle) { int count = 1; cistpl_longlink_mfc_t mfc; tuple_t tuple; bzero(&tuple, sizeof (tuple_t)); tuple.DesiredTuple = CISTPL_LONGLINK_MFC; tuple.Socket = socket; tuple.Attributes = 0; if (csx_GetFirstTuple(handle, &tuple) == CS_SUCCESS) { /* this is a multifunction card */ if (csx_ParseTuple(handle, &tuple, (cisparse_t *)&mfc, CISTPL_LONGLINK_MFC) == CS_SUCCESS) { count = mfc.nfuncs; } } return (count); } client_handle_t pcmcia_cs_handle; /* * pcmcia_create_dev_info(socket) * either find or create the device information structure * for the card(s) just inserted. We don't care about removal yet. * In any case, we will only do this at CS request */ static void pcmcia_create_dev_info(int socket) { struct pcm_device_info card_info; client_reg_t reg; cisinfo_t cisinfo; int i; dev_info_t *pdip; static int handle_def = 0; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "create dev_info_t for device in socket %d\n", socket); #endif /* * before we can do anything else, we need the parent * devinfo of the socket. This gets things in the right * place in the device tree. */ pdip = pcm_find_parent_dip(socket); if (pdip == NULL) return; /* Card Services calls needed to get CIS info */ reg.dip = NULL; reg.Attributes = INFO_SOCKET_SERVICES; reg.EventMask = 0; reg.event_handler = NULL; reg.Version = CS_VERSION; bzero(&card_info, sizeof (card_info)); if (handle_def == 0) { if (csx_RegisterClient(&pcmcia_cs_handle, ®) != CS_SUCCESS) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia: RegisterClient failed\n"); #endif return; } handle_def++; } card_info.pd_handle = pcmcia_cs_handle; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_create_dev_info: handle = %x\n", (int)card_info.pd_handle); #endif card_info.pd_type = -1; /* no type to start */ card_info.pd_socket = socket; card_info.pd_function = 0; pcmcia_sockets[socket]->ls_functions = 1; /* default */ cisinfo.Socket = socket; if ((i = csx_ValidateCIS(card_info.pd_handle, &cisinfo)) != SUCCESS || cisinfo.Tuples == 0) { /* no CIS means memory */ (void) strcpy(card_info.pd_generic_name, "memory"); card_info.pd_flags |= PCM_NAME_GENERIC | PCM_OTHER_NOCIS | PCM_NAME_1275; (void) strcpy(card_info.pd_bind_name, "pccard,memory"); (void) strcpy(card_info.pd_generic_name, "memory"); card_info.pd_type = PCM_TYPE_MEMORY; } else { int functions, lsocket; card_info.pd_tuples = cisinfo.Tuples; /* * how many functions on the card? * we need to know and then we do one * child node for each function using * the function specific tuples. */ lsocket = CS_MAKE_SOCKET_NUMBER(socket, CS_GLOBAL_CIS); functions = pcmcia_num_funcs(lsocket, card_info.pd_handle); pcmcia_sockets[socket]->ls_functions = functions; if (functions > 1) { card_info.pd_flags |= PCM_MULTI_FUNCTION; } for (i = 0; i < functions; i++) { register int flags; lsocket = CS_MAKE_SOCKET_NUMBER(socket, i); card_info.pd_socket = socket; card_info.pd_function = i; /* * new name construction */ if (functions != 1) { /* need per function handle */ card_info.pd_function = i; /* get new handle */ } pcmcia_1275_name(lsocket, &card_info, card_info.pd_handle); pcmcia_vers1_name(lsocket, &card_info, card_info.pd_handle); pcmcia_generic_name(lsocket, &card_info, card_info.pd_handle); flags = card_info.pd_flags; if (!(flags & PCM_NAME_1275)) { if (flags & PCM_NAME_VERS1) { (void) strcpy(card_info.pd_bind_name, PCMDEV_NAMEPREF); card_info.pd_bind_name[sizeof (PCMDEV_NAMEPREF)] = ','; (void) strncpy(card_info.pd_bind_name + sizeof (PCMDEV_NAMEPREF), card_info.pd_vers1_name, MODMAXNAMELEN - sizeof (PCMDEV_NAMEPREF)); pcmcia_fix_string(card_info.pd_bind_name); } else { /* * have a CIS but not the right info * so treat as generic "pccard" */ (void) strcpy(card_info.pd_generic_name, "pccard,memory"); card_info.pd_flags |= PCM_NAME_GENERIC; (void) strcpy(card_info.pd_bind_name, "pccard,memory"); } } pcmcia_init_devinfo(pdip, &card_info); } return; } pcmcia_init_devinfo(pdip, &card_info); } /* * pcmcia_init_devinfo() * if there isn't a device info structure, create one * if there is, we don't do much. * * Note: this will need updating as 1275 finalizes their spec. */ static void pcmcia_init_devinfo(dev_info_t *pdip, struct pcm_device_info *info) { int unit; dev_info_t *dip; char *name; struct pcmcia_parent_private *ppd; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "init_devinfo(%s, %d)\n", info->pd_bind_name, info->pd_socket); #endif /* * find out if there is already an instance of this * device. We don't want to create a new one unnecessarily */ unit = CS_MAKE_SOCKET_NUMBER(info->pd_socket, info->pd_function); dip = pcm_find_devinfo(pdip, info, unit); if ((dip != NULL) && (ddi_getprop(DDI_DEV_T_NONE, dip, DDI_PROP_DONTPASS, PCM_DEV_SOCKET, -1) != -1)) { /* it already exist but isn't a .conf file */ #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "\tfound existing device node (%s)\n", ddi_get_name(dip)); #endif if (strlen(info->pd_vers1_name) > 0) (void) ndi_prop_update_string(DDI_DEV_T_NONE, dip, PCM_DEV_MODEL, info->pd_vers1_name); ppd = (struct pcmcia_parent_private *) ddi_get_parent_data(dip); pcmcia_sockets[info->pd_socket]->ls_dip[info->pd_function] = dip; ppd->ppd_active = 1; if (ndi_devi_online(dip, 0) == NDI_FAILURE) { pcmcia_sockets[info->pd_socket]-> \ ls_dip[info->pd_function] = NULL; ppd->ppd_active = 0; } } else { char *dtype; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia: create child [%s](%d): %s\n", info->pd_bind_name, info->pd_socket, info->pd_generic_name); #endif if (info->pd_flags & PCM_NAME_GENERIC) name = info->pd_generic_name; else name = info->pd_bind_name; if (ndi_devi_alloc(pdip, name, (pnode_t)DEVI_SID_NODEID, &dip) != NDI_SUCCESS) { cmn_err(CE_WARN, "pcmcia: unable to create device [%s](%d)\n", name, info->pd_socket); return; } /* * construct the "compatible" property if the device * has a generic name */ pcmcia_add_compatible(dip, info); ppd = kmem_zalloc(sizeof (struct pcmcia_parent_private), KM_SLEEP); ppd->ppd_socket = info->pd_socket; ppd->ppd_function = info->pd_function; /* * add the "socket" property * the value of this property contains the logical PCMCIA * socket number the device has been inserted in, along * with the function # if the device is part of a * multi-function device. */ (void) ndi_prop_update_int(DDI_DEV_T_NONE, dip, PCM_DEV_SOCKET, unit); if (info->pd_flags & PCM_MULTI_FUNCTION) ppd->ppd_flags |= PPD_CARD_MULTI; /* * determine all the properties we need for PPD * then create the properties */ /* socket is unique */ pcmcia_find_regs(dip, info, ppd); ppd->ppd_intr = pcmcia_need_intr(unit, info); if (ppd->ppd_nreg > 0) (void) ddi_prop_update_int_array(DDI_DEV_T_NONE, dip, "reg", (int *)ppd->ppd_reg, ppd->ppd_nreg * sizeof (struct pcm_regs) / sizeof (int)); if (ppd->ppd_intr) { (void) ddi_prop_update_int(DDI_DEV_T_NONE, dip, "interrupts", ppd->ppd_intr); ppd->ppd_intrspec = kmem_zalloc(sizeof (struct intrspec), KM_SLEEP); } /* set parent private - our own format */ ddi_set_parent_data(dip, (caddr_t)ppd); /* init the device type */ if (info->pd_type >= 0 && info->pd_type < (sizeof (pcmcia_dev_type) / (sizeof (char *)))) dtype = pcmcia_dev_type[info->pd_type]; else dtype = "unknown"; if (strlen(info->pd_vers1_name) > 0) (void) ndi_prop_update_string(DDI_DEV_T_NONE, dip, PCM_DEV_MODEL, info->pd_vers1_name); (void) ndi_prop_update_string(DDI_DEV_T_NONE, dip, PCM_DEVICETYPE, dtype); /* set PC Card as active and present in socket */ pcmcia_sockets[info->pd_socket]->ls_dip[info->pd_function] = dip; ppd->ppd_active = 1; /* * We should not call ndi_devi_online here if * pcmcia attach is in progress. This causes a deadlock. */ if (pcmcia_dip != dip) { if (ndi_devi_online_async(dip, 0) != NDI_SUCCESS) { pcmcia_sockets[info->pd_socket]->\ ls_dip[info->pd_function] = NULL; pcmcia_ppd_free(ppd); (void) ndi_devi_free(dip); return; } } #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "\tjust added \"active\" to %s in %d\n", ddi_get_name(dip), info->pd_socket); #endif } /* * inform the event manager that a child was added * to the device tree. */ pcm_event_manager(PCE_DEV_IDENT, unit, ddi_get_name(dip)); #if defined(PCMCIA_DEBUG) if (pcmcia_debug > 1) { pcmcia_dump_minors(dip); } #endif } /* * free any allocated parent-private data */ static void pcmcia_ppd_free(struct pcmcia_parent_private *ppd) { size_t len; if (ppd->ppd_nreg != 0) { len = ppd->ppd_nreg * sizeof (uint32_t) * 3; kmem_free(ppd->ppd_reg, len); len = sizeof (struct pcm_regs) * ppd->ppd_nreg; kmem_free(ppd->ppd_assigned, len); } /* * pcmcia only allocates 1 intrspec today */ if (ppd->ppd_intr != 0) { len = sizeof (struct intrspec) * ppd->ppd_intr; kmem_free(ppd->ppd_intrspec, len); } kmem_free(ppd, sizeof (*ppd)); } /* * pcmcia_get_devinfo(socket) * entry point to allow finding the device info structure * for a given logical socket. Used by event manager */ dev_info_t * pcmcia_get_devinfo(int socket) { int func = CS_GET_FUNCTION_NUMBER(socket); socket = CS_GET_SOCKET_NUMBER(socket); if (pcmcia_sockets[socket]) return (pcmcia_sockets[socket]->ls_dip[func]); return ((dev_info_t *)NULL); } /* * CSGetCookiesAndDip() * get info needed by CS to setup soft interrupt handler and provide * socket-specific adapter information */ static int GetCookiesAndDip(sservice_t *serv) { pcmcia_logical_socket_t *socket; csss_adapter_info_t *ai; int sock; sock = CS_GET_SOCKET_NUMBER(serv->get_cookies.socket); if (sock >= pcmcia_num_sockets || (int)serv->get_cookies.socket < 0) return (BAD_SOCKET); socket = pcmcia_sockets[sock]; ai = &serv->get_cookies.adapter_info; serv->get_cookies.dip = socket->ls_adapter->pca_dip; serv->get_cookies.iblock = socket->ls_adapter->pca_iblock; serv->get_cookies.idevice = socket->ls_adapter->pca_idev; /* * Setup the adapter info for Card Services */ (void) strcpy(ai->name, socket->ls_adapter->pca_name); ai->major = socket->ls_adapter->pca_module; ai->minor = socket->ls_adapter->pca_unit; ai->number = socket->ls_adapter->pca_number; ai->num_sockets = socket->ls_adapter->pca_numsockets; ai->first_socket = socket->ls_adapter->pca_first_socket; return (SUCCESS); } /* * Note: * The following functions that start with 'SS' * implement SocketServices interfaces. They * simply map the socket and/or window number to * the adapter specific number based on the general * value that CardServices uses. * * See the descriptions in SocketServices for * details. Also refer to specific adapter drivers * for implementation reference. */ static int SSGetAdapter(get_adapter_t *adapter) { int n; get_adapter_t info; adapter->state = (unsigned)0xFFFFFFFF; adapter->SCRouting = 0xFFFFFFFF; for (n = 0; n < pcmcia_num_adapters; n++) { GET_ADAPTER(pcmcia_adapters[n]->pca_if, pcmcia_adapters[n]->pca_dip, &info); adapter->state &= info.state; adapter->SCRouting &= info.SCRouting; } return (SUCCESS); } static int SSGetPage(get_page_t *page) { pcmcia_logical_window_t *window; get_page_t newpage; int retval, win; if (page->window > pcmcia_num_windows) { return (BAD_WINDOW); } window = pcmcia_windows[page->window]; newpage = *page; win = newpage.window = window->lw_window; /* real window */ retval = GET_PAGE(window->lw_if, window->lw_adapter->pca_dip, &newpage); if (retval == SUCCESS) { *page = newpage; page->window = win; } return (retval); } static int SSGetSocket(get_socket_t *socket) { int retval, sock; get_socket_t newsocket; pcmcia_logical_socket_t *sockp; sock = socket->socket; if (sock > pcmcia_num_sockets || (sockp = pcmcia_sockets[sock]) == NULL) { return (BAD_SOCKET); } newsocket = *socket; newsocket.socket = sockp->ls_socket; retval = GET_SOCKET(sockp->ls_if, sockp->ls_adapter->pca_dip, &newsocket); if (retval == SUCCESS) { newsocket.VccLevel = pcmcia_map_power_get(sockp->ls_adapter, newsocket.VccLevel, VCC); newsocket.Vpp1Level = pcmcia_map_power_get(sockp->ls_adapter, newsocket.Vpp1Level, VPP1); newsocket.Vpp2Level = pcmcia_map_power_get(sockp->ls_adapter, newsocket.Vpp2Level, VPP2); *socket = newsocket; socket->socket = sock; } return (retval); } static int SSGetStatus(get_ss_status_t *status) { get_ss_status_t newstat; int sock, retval; pcmcia_logical_socket_t *sockp; sock = status->socket; if (sock > pcmcia_num_sockets || (sockp = pcmcia_sockets[sock]) == NULL) { return (BAD_SOCKET); } newstat = *status; newstat.socket = sockp->ls_socket; retval = GET_STATUS(sockp->ls_if, sockp->ls_adapter->pca_dip, &newstat); if (retval == SUCCESS) { *status = newstat; status->socket = sock; } return (retval); } static int SSGetWindow(get_window_t *window) { int win, retval; get_window_t newwin; pcmcia_logical_window_t *winp; win = window->window; winp = pcmcia_windows[win]; newwin = *window; newwin.window = winp->lw_window; retval = GET_WINDOW(winp->lw_if, winp->lw_adapter->pca_dip, &newwin); if (retval == SUCCESS) { newwin.socket = winp->lw_socket; newwin.window = win; *window = newwin; } return (retval); } /* * SSInquireAdapter() * Get the capabilities of the "generic" adapter * we are exporting to CS. */ static int SSInquireAdapter(inquire_adapter_t *adapter) { adapter->NumSockets = pcmcia_num_sockets; adapter->NumWindows = pcmcia_num_windows; adapter->NumEDCs = 0; /* * notes: Adapter Capabilities are going to be difficult to * determine with reliability. Fortunately, most of them * don't matter under Solaris or can be handled transparently */ adapter->AdpCaps = 0; /* need to fix these */ /* * interrupts need a little work. For x86, the valid IRQs will * be restricted to those that the system has exported to the nexus. * for SPARC, it will be the DoRight values. */ adapter->ActiveHigh = 0; adapter->ActiveLow = 0; adapter->power_entry = pcmcia_power_table; /* until we resolve this */ adapter->NumPower = pcmcia_num_power; return (SUCCESS); } static int SSInquireSocket(inquire_socket_t *socket) { int retval, sock; inquire_socket_t newsocket; pcmcia_logical_socket_t *sockp; sock = socket->socket; if (sock > pcmcia_num_sockets || (sockp = pcmcia_sockets[sock]) == NULL) return (BAD_SOCKET); newsocket = *socket; newsocket.socket = sockp->ls_socket; retval = INQUIRE_SOCKET(sockp->ls_if, sockp->ls_adapter->pca_dip, &newsocket); if (retval == SUCCESS) { *socket = newsocket; socket->socket = sock; } return (retval); } static int SSInquireWindow(inquire_window_t *window) { int retval, win; pcmcia_logical_window_t *winp; inquire_window_t newwin; int slide; win = window->window; if (win > pcmcia_num_windows) return (BAD_WINDOW); winp = pcmcia_windows[win]; newwin = *window; newwin.window = winp->lw_window; retval = INQUIRE_WINDOW(winp->lw_if, winp->lw_adapter->pca_dip, &newwin); #if defined(PCMCIA_DEBUG) if (pcmcia_debug > 1) cmn_err(CE_CONT, "SSInquireWindow: win=%d, pwin=%d\n", win, newwin.window); #endif if (retval == SUCCESS) { *window = newwin; /* just in case */ window->iowin_char.IOWndCaps &= ~WC_BASE; slide = winp->lw_adapter->pca_first_socket; /* * note that sockets are relative to the adapter. * we have to adjust the bits to show a logical * version. */ pcm_fix_bits(newwin.Sockets, window->Sockets, slide, 0); #if defined(PCMCIA_DEBUG) if (pcmcia_debug > 1) { cmn_err(CE_CONT, "iw: orig bits=%x, new bits=%x\n", (int)*(uint32_t *)newwin.Sockets, (int)*(uint32_t *)window->Sockets); cmn_err(CE_CONT, "\t%x.%x.%x\n", window->WndCaps, window->mem_win_char.MemWndCaps, window->mem_win_char.MinSize); } #endif window->window = win; } return (retval); } static int SSResetSocket(int socket, int mode) { pcmcia_logical_socket_t *sockp; if (socket >= pcmcia_num_sockets || (sockp = pcmcia_sockets[socket]) == NULL) return (BAD_SOCKET); return (RESET_SOCKET(sockp->ls_if, sockp->ls_adapter->pca_dip, sockp->ls_socket, mode)); } static int SSSetPage(set_page_t *page) { int window, retval; set_page_t newpage; pcmcia_logical_window_t *winp; window = page->window; if (window > pcmcia_num_windows) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug > 1) cmn_err(CE_CONT, "SSSetPage: window=%d (of %d)\n", window, pcmcia_num_windows); #endif return (BAD_WINDOW); } winp = pcmcia_windows[window]; newpage = *page; newpage.window = winp->lw_window; retval = SET_PAGE(winp->lw_if, winp->lw_adapter->pca_dip, &newpage); if (retval == SUCCESS) { newpage.window = window; *page = newpage; } #if defined(PCMCIA_DEBUG) if ((pcmcia_debug > 1) && retval != SUCCESS) cmn_err(CE_CONT, "\tSetPage: returning error %x\n", retval); #endif return (retval); } static int SSSetWindow(set_window_t *win) { int socket, window, retval, func; set_window_t newwin; pcmcia_logical_window_t *winp; pcmcia_logical_socket_t *sockp; window = win->window; if (window > pcmcia_num_windows) return (BAD_WINDOW); socket = CS_GET_SOCKET_NUMBER(win->socket); func = CS_GET_FUNCTION_NUMBER(win->socket); if (socket > pcmcia_num_sockets || (sockp = pcmcia_sockets[socket]) == NULL) { return (BAD_SOCKET); } winp = pcmcia_windows[window]; winp->lw_socket = win->socket; /* reverse map */ newwin = *win; newwin.window = winp->lw_window; newwin.socket = sockp->ls_socket; newwin.child = sockp->ls_dip[func]; /* so we carry the dip around */ retval = SET_WINDOW(winp->lw_if, winp->lw_adapter->pca_dip, &newwin); if (retval == SUCCESS) { newwin.window = window; newwin.socket = winp->lw_socket; *win = newwin; } return (retval); } static int SSSetSocket(set_socket_t *socket) { int sock, retval; pcmcia_logical_socket_t *sockp; set_socket_t newsock; sock = socket->socket; if (sock > pcmcia_num_sockets || (sockp = pcmcia_sockets[sock]) == NULL) { return (BAD_SOCKET); } newsock = *socket; /* note: we force CS to always get insert/removal events */ sockp->ls_cs_events = pcm_mapevents(newsock.SCIntMask) | PCE_E2M(PCE_CARD_INSERT) | PCE_E2M(PCE_CARD_REMOVAL); #if defined(PCMCIA_DEBUG) if (pcmcia_debug > 1) cmn_err(CE_CONT, "SetSocket: SCIntMask = %x\n", newsock.SCIntMask); #endif newsock.socket = sockp->ls_socket; newsock.VccLevel = pcmcia_map_power_set(sockp->ls_adapter, newsock.VccLevel, VCC); newsock.Vpp1Level = pcmcia_map_power_set(sockp->ls_adapter, newsock.Vpp1Level, VPP1); newsock.Vpp2Level = pcmcia_map_power_set(sockp->ls_adapter, newsock.Vpp2Level, VPP2); retval = SET_SOCKET(sockp->ls_if, sockp->ls_adapter->pca_dip, &newsock); if (retval == SUCCESS) { newsock.socket = sock; newsock.VccLevel = pcmcia_map_power_get(sockp->ls_adapter, newsock.VccLevel, VCC); newsock.Vpp1Level = pcmcia_map_power_get(sockp->ls_adapter, newsock.Vpp1Level, VPP1); newsock.Vpp2Level = pcmcia_map_power_get(sockp->ls_adapter, newsock.Vpp2Level, VPP2); *socket = newsock; if (socket->IREQRouting & IRQ_ENABLE) { sockp->ls_flags |= PCS_IRQ_ENABLED; } else { sockp->ls_flags &= ~PCS_IRQ_ENABLED; } } return (retval); } /* * SSSetIRQHandler() * arrange for IRQ to be allocated if appropriate and always * arrange that PC Card interrupt handlers get called. */ static int SSSetIRQHandler(set_irq_handler_t *handler) { int sock, retval, func; pcmcia_logical_socket_t *sockp; struct pcmcia_parent_private *ppd; dev_info_t *dip; ddi_iblock_cookie_t iblk; ddi_idevice_cookie_t idev; sock = CS_GET_SOCKET_NUMBER(handler->socket); func = CS_GET_FUNCTION_NUMBER(handler->socket); if (sock > pcmcia_num_sockets || (sockp = pcmcia_sockets[sock]) == NULL) { return (BAD_SOCKET); } #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "SSSetIRQHandler: socket=%x, function=%x\n", sock, func); cmn_err(CE_CONT, "\thandler(%p): socket=%x, irq=%x, id=%x\n", (void *)handler->handler, handler->socket, handler->irq, handler->handler_id); } #endif dip = sockp->ls_dip[func]; ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(dip); handler->iblk_cookie = &iblk; handler->idev_cookie = &idev; retval = ddi_add_intr(dip, 0, handler->iblk_cookie, handler->idev_cookie, (uint32_t(*)(caddr_t)) handler->handler, handler->arg1); if (retval == DDI_SUCCESS) { handler->iblk_cookie = &sockp->ls_iblk; handler->idev_cookie = &sockp->ls_idev; handler->irq = ppd->ppd_intrspec->intrspec_vec; retval = SUCCESS; } else { retval = sockp->ls_error; } return (retval); } /* * SSClearIRQHandler() * Arrange to have the interrupt handler specified removed * from the interrupt list. */ static int SSClearIRQHandler(clear_irq_handler_t *handler) { int sock, func; pcmcia_logical_socket_t *sockp; dev_info_t *dip; sock = CS_GET_SOCKET_NUMBER(handler->socket); func = CS_GET_FUNCTION_NUMBER(handler->socket); #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "SSClearIRQHandler: socket=%x, function=%x\n", sock, func); cmn_err(CE_CONT, "\thandler(%p): socket=%x, id=%x\n", (void *)handler, handler->socket, handler->handler_id); } #endif if (sock > pcmcia_num_sockets || (sockp = pcmcia_sockets[sock]) == NULL) { return (BAD_SOCKET); } dip = sockp->ls_dip[func]; if (dip) { ddi_remove_intr(dip, 0, NULL); return (SUCCESS); } return (BAD_SOCKET); } /* * pcm_pathname() * make a partial path from dip. * used to mknods relative to /devices/pcmcia/ * * XXX - we now use ddi_get_name_addr to get the "address" portion * of the name; that way, we only have to modify the name creation * algorithm in one place */ static void pcm_pathname(dev_info_t *dip, char *name, char *path) { (void) sprintf(path, "%s@%s:%s", ddi_node_name(dip), ddi_get_name_addr(dip), name); } /* * pcmcia_create_device() * create the /devices entries for the driver * it is assumed that the PC Card driver will do a * RegisterClient for each subdevice. * The device type string is encoded here to match * the standardized names when possible. * XXX - note that we may need to provide a way for the * caller to specify the complete name string that * we pass to ddi_set_name_addr */ static int pcmcia_create_device(ss_make_device_node_t *init) { int err = SUCCESS; struct pcm_make_dev device; struct dev_ops *ops; major_t major; /* * Now that we have the name, create it. */ bzero(&device, sizeof (device)); if (init->flags & SS_CSINITDEV_CREATE_DEVICE) { if ((err = ddi_create_minor_node(init->dip, init->name, init->spec_type, init->minor_num, init->node_type, 0)) != DDI_SUCCESS) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_create_device: failed " "create\n"); #endif return (BAD_ATTRIBUTE); } major = ddi_name_to_major(ddi_binding_name(init->dip)); ops = ddi_get_driver(init->dip); LOCK_DEV_OPS(&devnamesp[major].dn_lock); INCR_DEV_OPS_REF(ops); (void) ddi_pathname(init->dip, device.path); DECR_DEV_OPS_REF(ops); UNLOCK_DEV_OPS(&devnamesp[major].dn_lock); (void) sprintf(device.path + strlen(device.path), ":%s", init->name); (void) strcpy(device.driver, ddi_binding_name(init->dip)); #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_create_device: created %s " "from %s [%s]\n", device.path, init->name, device.driver); #endif device.dev = makedevice(ddi_name_to_major(ddi_get_name(init->dip)), init->minor_num); device.flags |= (init->flags & SS_CSINITDEV_MORE_DEVICES) ? PCM_EVENT_MORE : 0; device.type = init->spec_type; device.op = SS_CSINITDEV_CREATE_DEVICE; device.socket = ddi_getprop(DDI_DEV_T_ANY, init->dip, DDI_PROP_CANSLEEP, PCM_DEV_SOCKET, -1); } else if (init->flags & SS_CSINITDEV_REMOVE_DEVICE) { device.op = SS_CSINITDEV_REMOVE_DEVICE; device.socket = ddi_getprop(DDI_DEV_T_ANY, init->dip, DDI_PROP_CANSLEEP, PCM_DEV_SOCKET, -1); if (init->name != NULL) (void) strcpy(device.path, init->name); device.dev = makedevice(ddi_name_to_major(ddi_get_name(init->dip)), 0); ddi_remove_minor_node(init->dip, init->name); } /* * we send an event for ALL devices created. * To do otherwise ties us to using drvconfig * forever. There are relatively few devices * ever created so no need to do otherwise. * The existence of the event manager must never * be visible to a PCMCIA device driver. */ pcm_event_manager(PCE_INIT_DEV, device.socket, &device); return (err); } /* * pcmcia_get_minors() * We need to traverse the minor node list of the * dip if there are any. This takes two passes; * one to get the count and buffer size and the * other to actually copy the data into the buffer. * The framework requires that the dip be locked * during this time to avoid breakage as well as the * driver being locked. */ int pcmcia_get_minors(dev_info_t *dip, struct pcm_make_dev **minors) { int circ; int count = 0; struct ddi_minor_data *dp; struct pcm_make_dev *md; int socket; major_t major; struct dev_ops *ops; socket = ddi_getprop(DDI_DEV_T_ANY, dip, DDI_PROP_DONTPASS, PCM_DEV_SOCKET, -1); ndi_devi_enter(dip, &circ); if (DEVI(dip)->devi_minor != (struct ddi_minor_data *)NULL) { for (dp = DEVI(dip)->devi_minor; dp != (struct ddi_minor_data *)NULL; dp = dp->next) { count++; /* have one more */ } /* we now know how many nodes to allocate */ md = kmem_zalloc(count * sizeof (struct pcm_make_dev), KM_NOSLEEP); if (md != NULL) { *minors = md; for (dp = DEVI(dip)->devi_minor; dp != (struct ddi_minor_data *)NULL; dp = dp->next, md++) { #if defined(PCMCIA_DEBUG) if (pcmcia_debug > 1) { cmn_err(CE_CONT, "pcmcia_get_minors: name=%s," "socket=%d, stype=%x, " "ntype=%s, dev_t=%x", dp->ddm_name, socket, dp->ddm_spec_type, dp->ddm_node_type, (int)dp->ddm_dev); cmn_err(CE_CONT, "\tbind name = %s\n", ddi_binding_name(dip)); } #endif md->socket = socket; md->op = SS_CSINITDEV_CREATE_DEVICE; md->dev = dp->ddm_dev; md->type = dp->ddm_spec_type; (void) strcpy(md->driver, ddi_binding_name(dip)); major = ddi_name_to_major(md->driver); ops = ddi_get_driver(dip); LOCK_DEV_OPS(&devnamesp[major].dn_lock); pcm_pathname(dip, dp->ddm_name, md->path); INCR_DEV_OPS_REF(ops); (void) ddi_pathname(dip, md->path); DECR_DEV_OPS_REF(ops); UNLOCK_DEV_OPS(&devnamesp[major].dn_lock); (void) sprintf(md->path + strlen(md->path), ":%s", dp->ddm_name); if (dp->next == NULL) /* no more */ md->flags |= PCM_EVENT_MORE; } } else { count = 0; } } ndi_devi_exit(dip, circ); return (count); } #if defined(PCMCIA_DEBUG) static char *ddmtypes[] = { "minor", "alias", "default", "internal" }; static void pcmcia_dump_minors(dev_info_t *dip) { int circ; int count = 0; struct ddi_minor_data *dp; int unit, major; dev_info_t *np; unit = ddi_getprop(DDI_DEV_T_ANY, dip, DDI_PROP_DONTPASS, PCM_DEV_SOCKET, -1); cmn_err(CE_CONT, "pcmcia_dump_minors: dip=%p, socket=%d\n", (void *)dip, unit); major = ddi_driver_major(dip); if (major != -1) { for (np = devnamesp[major].dn_head; np != NULL; np = (dev_info_t *)DEVI(np)->devi_next) { char *cf2 = ""; char *cur = ""; if (i_ddi_node_state(np) == DS_READY) cf2 = "DS_READY"; if (np == dip) cur = "CUR"; cmn_err(CE_CONT, "\tsibs: %s %s %s\n", ddi_binding_name(np), cf2, cur); ndi_devi_enter(np, &circ); if (DEVI(np)->devi_minor != (struct ddi_minor_data *)NULL) { for (dp = DEVI(np)->devi_minor; dp != (struct ddi_minor_data *)NULL; dp = dp->next) { count++; /* have one more */ } for (dp = DEVI(dip)->devi_minor; dp != (struct ddi_minor_data *)NULL; dp = dp->next) { cmn_err(CE_CONT, "\ttype=%s, name=%s," "socket=%d, stype=%x, " "ntype=%s, dev_t=%x", ddmtypes[dp->type], dp->ddm_name, unit, dp->ddm_spec_type, dp->ddm_node_type, (int)dp->ddm_dev); cmn_err(CE_CONT, "\tbind name = %s\n", ddi_binding_name(np)); } } ndi_devi_exit(np, circ); } } } #endif /* * experimental merging code * what are the things that we should merge on? * match something by name in the "compatible" property * restrict to a specific "socket" * restrict to a specific "instance" */ /*ARGSUSED*/ static int pcmcia_merge_conf(dev_info_t *dip) { return (0); /* merge failed */ } /* * pcmcia_mfc_intr() * Multifunction Card interrupt handler * While some adapters share interrupts at the lowest * level, some can't. In order to be consistent, we * split multifunction cards out with this intercept and * allow the low level to do what is best for it. * the arg is a pcmcia_socket structure and all interrupts * are per-socket in this case. We also have the option * to optimize if the cards support it. It also means * that we can use the INTRACK mode if it proves desirable */ /*ARGSUSED*/ static uint32_t pcmcia_mfc_intr(caddr_t arg1, caddr_t arg2) { pcmcia_logical_socket_t *sockp; inthandler_t *intr, *first; int done, result; sockp = (pcmcia_logical_socket_t *)arg1; #if defined(PCMCIA_DEBUG) if (pcmcia_debug > 1) { cmn_err(CE_CONT, "pcmcia_mfc_intr sockp=%p" " ls_inthandlers=%p\n" "\t ls_flags=0x%x PCS_IRQ_ENABLED=0x%x \n", (void *) sockp, (void *) sockp->ls_inthandlers, sockp->ls_flags, PCS_IRQ_ENABLED); } #endif if (sockp == NULL || sockp->ls_inthandlers == NULL || !(sockp->ls_flags & PCS_IRQ_ENABLED)) return (DDI_INTR_UNCLAIMED); mutex_enter(&sockp->ls_ilock); for (done = 0, result = 0, first = intr = sockp->ls_inthandlers; intr != NULL && !done; intr = intr->next) { result |= intr->intr(intr->arg1, intr->arg2); if (intr->next == first) done++; } if (intr == NULL) { cmn_err(CE_WARN, "pcmcia_mfc_intr: bad MFC handler list"); } if (sockp->ls_inthandlers) sockp->ls_inthandlers = sockp->ls_inthandlers->next; mutex_exit(&sockp->ls_ilock); return (result ? DDI_INTR_CLAIMED : DDI_INTR_UNCLAIMED); } /* * pcmcia_power(dip) * control power for nexus and children */ int pcmcia_power(dev_info_t *dip, int component, int level) { #if 0 anp_t *anp = (anp_t *)ddi_get_driver_private(dip); int i; /* * for now, we only have one component. Should there be one per-socket? * the level is only one (power on or off) */ if (component != 0 || level > 1) return (DDI_FAILURE); for (i = 0; i < pcic->pc_numsockets; i++) { if (pcic->pc_callback) PC_CALLBACK(dip, pcic->pc_cb_arg, (level == 0) ? PCE_PM_SUSPEND : PCE_PM_RESUME, i); } #else cmn_err(CE_WARN, "pcmcia_power: component=%d, level=%d for %s", component, level, ddi_get_name_addr(dip)); return (DDI_FAILURE); #endif } void pcmcia_begin_resume(dev_info_t *dip) { int i; struct pcmcia_adapter *adapt = NULL; for (i = 0; i < pcmcia_num_adapters; i++) { if (pcmcia_adapters[i]->pca_dip == dip) { adapt = pcmcia_adapters[i]; break; } } if (adapt == NULL) return; for (i = 0; i < adapt->pca_numsockets; i++) { int s; s = adapt->pca_first_socket + i; if (pcmcia_sockets[s]->ls_flags & PCS_SUSPENDED) { if (pcmcia_sockets[s]->ls_flags & (1 << PCE_PM_RESUME)) { (void) cs_event(PCE_PM_RESUME, s, 0); pcm_event_manager(PCE_PM_RESUME, s, NULL); } (void) cs_event(PCE_CARD_REMOVAL, s, 0); pcm_event_manager(PCE_CARD_REMOVAL, s, NULL); } } } /* * mark a cardbus card as "suspended" in the pcmcia module */ void pcmcia_cb_suspended(int socket) { mutex_enter(&pcmcia_global_lock); pcmcia_sockets[socket]->ls_flags |= PCS_SUSPENDED; mutex_exit(&pcmcia_global_lock); } /* * mark a cardbus card as "resumed" in the pcmcia module */ void pcmcia_cb_resumed(int socket) { if (pcmcia_sockets[socket]->ls_flags & PCS_SUSPENDED) { mutex_enter(&pcmcia_global_lock); pcmcia_sockets[socket]->ls_flags &= ~PCS_SUSPENDED; cv_broadcast(&pcmcia_condvar); mutex_exit(&pcmcia_global_lock); #ifdef PCMCIA_DEBUG if (pcmcia_debug) { cmn_err(CE_NOTE, "pcmcia_cb_resume RESUMED"); } #endif } } void pcmcia_wait_insert(dev_info_t *dip) { int i, f, tries, done; clock_t tm; struct pcmcia_adapter *adapt = NULL; anp_t *nexus; for (i = 0; i < pcmcia_num_adapters; i++) { if (pcmcia_adapters[i]->pca_dip == dip) { adapt = pcmcia_adapters[i]; break; } } if (adapt == NULL) return; for (tries = adapt->pca_numsockets * 10; tries > 0; tries--) { done = 1; mutex_enter(&pcmcia_global_lock); for (i = 0; i < adapt->pca_numsockets; i++) { int s; s = adapt->pca_first_socket + i; for (f = 0; f < PCMCIA_MAX_FUNCTIONS; f++) if (pcmcia_sockets[s] && pcmcia_sockets[s]->ls_flags & PCS_SUSPENDED) { #ifdef PCMCIA_DEBUG if (pcmcia_debug) { cmn_err(CE_NOTE, "pcmcia_wait_insert: " "socket in SUSPENDED state"); } #endif done = 0; break; } } if (!done) { tm = ddi_get_lbolt(); (void) cv_timedwait(&pcmcia_condvar, &pcmcia_global_lock, tm + drv_usectohz(100000)); } else { tries = 0; } mutex_exit(&pcmcia_global_lock); } if (tries == 0) { cmn_err(CE_NOTE, "pcmcia_wait_insert timed out"); } nexus = (anp_t *)ddi_get_driver_private(dip); pcmcia_find_cards(nexus); } int pcmcia_map_reg(dev_info_t *pdip, dev_info_t *dip, ra_return_t *ra, uint32_t state, caddr_t *base, ddi_acc_handle_t *handle, ddi_device_acc_attr_t *attrib, uint32_t req_base) { struct pcmcia_parent_private *ppd; int rnum = 0, type = PCMCIA_MAP_MEM; ddi_map_req_t mr; ddi_acc_hdl_t *hp; int result; struct regspec *reg; ddi_device_acc_attr_t attr; if (dip != NULL) { ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(dip); if (ppd == NULL) return (DDI_FAILURE); for (rnum = 1; rnum < ppd->ppd_nreg; rnum++) { struct pcm_regs *p; p = &ppd->ppd_reg[rnum]; if (state & WS_IO) { /* need I/O */ type = PCMCIA_MAP_IO; /* * We want to find an IO regspec. When we * find one, it either has to match * the caller's requested base address * or it has to be relocatable. * We match on the requested base address * rather than the allocated base * address so that we handle the case * of adapters that have IO window base * relocation registers. */ if ((p->phys_hi & PC_REG_SPACE(PC_REG_SPACE_IO)) && ((req_base == p->phys_lo) || !(p->phys_hi & PC_REG_RELOC(1)))) break; } else { /* need memory */ type = PCMCIA_MAP_MEM; if (p->phys_hi & PC_REG_SPACE(PC_REG_SPACE_MEMORY| PC_REG_SPACE_ATTRIBUTE)) break; } } if (rnum >= ppd->ppd_nreg) return (DDI_FAILURE); } else if (state & WS_IO) { return (DDI_FAILURE); } reg = kmem_zalloc(sizeof (pci_regspec_t), KM_SLEEP); reg = pcmcia_cons_regspec(pdip, type, (uchar_t *)reg, ra); if (attrib == NULL || attrib->devacc_attr_version != DDI_DEVICE_ATTR_V0) { attr.devacc_attr_version = DDI_DEVICE_ATTR_V0; attr.devacc_attr_endian_flags = DDI_NEVERSWAP_ACC; attr.devacc_attr_dataorder = DDI_STRICTORDER_ACC; } else { attr = *attrib; } /* * Allocate and initialize the common elements of data access handle. */ *handle = impl_acc_hdl_alloc(KM_SLEEP, NULL); hp = impl_acc_hdl_get(*handle); hp->ah_vers = VERS_ACCHDL; hp->ah_dip = dip != NULL ? dip : pdip; hp->ah_rnumber = rnum; hp->ah_offset = 0; hp->ah_len = ra->ra_len; hp->ah_acc = attr; /* * Set up the mapping request and call to parent. */ mr.map_op = DDI_MO_MAP_LOCKED; mr.map_type = DDI_MT_REGSPEC; mr.map_obj.rp = reg; mr.map_prot = PROT_READ | PROT_WRITE; mr.map_flags = DDI_MF_KERNEL_MAPPING; mr.map_handlep = hp; mr.map_vers = DDI_MAP_VERSION; result = ddi_map(pdip, &mr, 0, ra->ra_len, base); if (result != DDI_SUCCESS) { impl_acc_hdl_free(*handle); *handle = (ddi_acc_handle_t)NULL; } else { hp->ah_addr = *base; if (mr.map_op == DDI_MO_UNMAP) ra = NULL; if (dip != NULL) pcmcia_set_assigned(dip, rnum, ra); } kmem_free(reg, sizeof (pci_regspec_t)); return (result); } struct pcmcia_adapter * pcmcia_get_adapter(dev_info_t *dip) { int i; for (i = 0; i < pcmcia_num_adapters; i++) { if (pcmcia_adapters[i] && pcmcia_adapters[i]->pca_dip == dip) { return (pcmcia_adapters[i]); } } return (NULL); } void pcmcia_set_assigned(dev_info_t *dip, int rnum, ra_return_t *ret) { struct pcmcia_parent_private *ppd; struct pcm_regs *reg, *assign; ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(dip); if (ppd) { reg = &ppd->ppd_reg[rnum]; assign = &ppd->ppd_assigned[rnum]; if (ret) { if (assign->phys_hi == 0) { assign->phys_hi = reg->phys_hi; assign->phys_lo = ret->ra_addr_lo; assign->phys_len = ret->ra_len; } else if (assign->phys_lo != ret->ra_addr_lo) { #ifdef PCMCIA_DEBUG cmn_err(CE_WARN, "pcmcia: bad address:" "%s=<%x,%x>", ddi_get_name_addr(dip), ret->ra_addr_lo, assign->phys_lo); #else cmn_err(CE_WARN, "!pcmcia: bad address:" "%s=<%x,%x>", ddi_get_name_addr(dip), ret->ra_addr_lo, (int)assign->phys_lo); #endif } assign->phys_hi = PC_INCR_REFCNT(assign->phys_hi); } else { int i; assign->phys_hi = PC_DECR_REFCNT(assign->phys_hi); i = PC_GET_REG_REFCNT(assign->phys_hi); if (i == 0) { assign->phys_hi = 0; assign->phys_lo = 0; assign->phys_len = 0; } } } } int pcmcia_alloc_mem(dev_info_t *dip, ndi_ra_request_t *req, ra_return_t *ret, dev_info_t **res_dip) { return (pcmcia_ra_alloc(dip, req, ret, NDI_RA_TYPE_MEM, res_dip)); } int pcmcia_alloc_io(dev_info_t *dip, ndi_ra_request_t *req, ra_return_t *ret, dev_info_t **res_dip) { return (pcmcia_ra_alloc(dip, req, ret, NDI_RA_TYPE_IO, res_dip)); } static boolean_t is_subtractv(dev_info_t *dip) { uint_t class; if (dip == NULL) return (B_FALSE); class = ddi_getprop(DDI_DEV_T_ANY, dip, DDI_PROP_CANSLEEP|DDI_PROP_DONTPASS, "class-code", 0xff); if (class == PPB_SUBTRACTIVE) { return (B_TRUE); } return (B_FALSE); } /* * pcmcia_pci_alloc() * allocate mem or I/O resource from the ancestor of the cardbus bridge. * First start from the parent node. If the parent is a subtractive * decode bridge and it does not have the requested resource, go up the * device tree to find the resource. * * dip the parent node of the cardbus bridge * * res_dip returns a pointer to the node from which the * resource is obtained. *res_dip could point to * the parent or a higher level ancestor. *res_dip * should be saved by the caller and later passed * to pcmcia_ra_free(); */ int pcmcia_pci_alloc(dev_info_t *dip, ndi_ra_request_t *req, ra_return_t *ret, char *type, dev_info_t **res_dip) { uint64_t base = 0; uint64_t len = 0; if ((ndi_ra_alloc(dip, req, &base, &len, type, NDI_RA_PASS) == NDI_FAILURE) || ((base >> 32) != 0)) { if (is_subtractv(dip)) { return (pcmcia_pci_alloc(ddi_get_parent(dip), req, ret, type, res_dip)); } else { ret->ra_addr_hi = 0; ret->ra_addr_lo = 0; ret->ra_len = 0; return (DDI_FAILURE); } } ret->ra_addr_lo = base & 0xffffffff; ret->ra_addr_hi = 0; ret->ra_len = len; *res_dip = dip; return (DDI_SUCCESS); } int pcmcia_ra_alloc(dev_info_t *dip, ndi_ra_request_t *req, ra_return_t *ret, char *type, dev_info_t **res_dip) { uint64_t base = 0; uint64_t len = 0; /* * Allocate space from busra resource list * should not return an address > 32 bits */ if ((ndi_ra_alloc(dip, req, &base, &len, type, NDI_RA_PASS) == NDI_FAILURE) || ((base >> 32) != 0)) { return (pcmcia_pci_alloc(ddi_get_parent(dip), req, ret, type, res_dip)); } else { ret->ra_addr_lo = base & 0xffffffff; ret->ra_addr_hi = 0; ret->ra_len = len; *res_dip = dip; return (DDI_SUCCESS); } } int pcmcia_free_mem(dev_info_t *dip, ra_return_t *ret) { return (pcmcia_ra_free(dip, ret, NDI_RA_TYPE_MEM)); } int pcmcia_free_io(dev_info_t *dip, ra_return_t *ret) { return (pcmcia_ra_free(dip, ret, NDI_RA_TYPE_IO)); } int pcmcia_ra_free(dev_info_t *dip, ra_return_t *ret, char *type) { if (dip == (dev_info_t *)-1) return (DDI_FAILURE); if (ndi_ra_free(dip, (uint64_t)ret->ra_addr_lo, (uint64_t)ret->ra_len, type, NDI_RA_PASS) == NDI_SUCCESS) { return (DDI_SUCCESS); } else { return (DDI_FAILURE); } } /* * when the low level device configuration does resource assignment * (devconf) then free the allocated resources so we can reassign them * later. Walk the child list to get them. */ void pcmcia_free_resources(dev_info_t *self) { struct regspec *assigned; int len; dev_info_t *dip; int circ; ndi_devi_enter(self, &circ); /* do searches in compatible property order */ for (dip = (dev_info_t *)DEVI(self)->devi_child; dip != NULL; dip = (dev_info_t *)DEVI(dip)->devi_sibling) { len = 0; if (ddi_getlongprop(DDI_DEV_T_ANY, dip, DDI_PROP_DONTPASS|DDI_PROP_CANSLEEP, "assigned-addresses", (caddr_t)&assigned, &len) == DDI_PROP_SUCCESS) { /* * if there are assigned resources at this point, * then the OBP or devconf have assigned them and * they need to be freed. */ kmem_free(assigned, len); } } ndi_devi_exit(self, circ); } /* * this is the equivalent of pcm_get_intr using ra_allocs. * returns -1 if failed, otherwise returns the allocated irq. * The input request, if less than zero it means not a specific * irq requested. If larger then 0 then we are requesting that specific * irq */ int pcmcia_get_intr(dev_info_t *dip, int request) { ndi_ra_request_t req; uint64_t base; uint64_t len; int err; bzero(&req, sizeof (req)); base = 0; len = 1; if (request >= 0) { req.ra_flags = NDI_RA_ALLOC_SPECIFIED; req.ra_len = 1; req.ra_addr = (uint64_t)request; } req.ra_boundbase = 0; req.ra_boundlen = 0xffffffffUL; req.ra_flags |= NDI_RA_ALLOC_BOUNDED; err = ndi_ra_alloc(dip, &req, &base, &len, NDI_RA_TYPE_INTR, NDI_RA_PASS); if (err == NDI_FAILURE) { return (-1); } else { return ((int)base); } } int pcmcia_return_intr(dev_info_t *dip, int request) { if ((ndi_ra_free(dip, (uint64_t)request, 1, NDI_RA_TYPE_INTR, NDI_RA_PASS)) == NDI_SUCCESS) { return (0); } else return (-1); } #ifdef sparc int pcmcia_add_intr_impl(dev_info_t *dip, dev_info_t *rdip, ddi_intr_handle_impl_t *hdlp) { struct pcmcia_parent_private *ppd; pcmcia_logical_socket_t *sockp; int socket, ret; struct pcmcia_adapter *adapt; set_irq_handler_t handler; struct intrspec *pispec; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_add_intr_impl() entered " "dip=%p rdip=%p hdlp=%p \n", (void *)dip, (void *)rdip, (void *)hdlp); } #endif ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(rdip); socket = ppd->ppd_socket; sockp = pcmcia_sockets[socket]; adapt = sockp->ls_adapter; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_add_intr_impl()" " ppd_flags=0X%x PPD_CARD_MULTI=0X%x\n" " ppd_intrspec=%p ls_inthandlers=%p\n", ppd->ppd_flags, PPD_CARD_MULTI, (void *) ppd->ppd_intrspec, (void *)sockp->ls_inthandlers); } #endif /* * calculate IPL level when we support multiple levels */ pispec = ppd->ppd_intrspec; if (pispec == NULL) { sockp->ls_error = BAD_IRQ; return (DDI_FAILURE); } handler.socket = sockp->ls_socket; handler.irq = 0; /* default case */ handler.handler = (f_tt *)hdlp->ih_cb_func; handler.arg1 = hdlp->ih_cb_arg1; handler.arg2 = hdlp->ih_cb_arg2; handler.handler_id = (uint32_t)(uintptr_t)rdip; /* * check if multifunction and do the right thing * we put an intercept in between the mfc handler and * us so we can catch and process. We might be able * to optimize this depending on the card features * (a future option). */ if (ppd->ppd_flags & PPD_CARD_MULTI) { inthandler_t *intr; /* * note that the first function is a special * case since it sets things up. We fall through * to the lower code and get the hardware set up. * subsequent times we just lock the list and insert * the handler and all is well. */ intr = kmem_zalloc(sizeof (inthandler_t), KM_NOSLEEP); if (intr == NULL) { sockp->ls_error = BAD_IRQ; return (DDI_FAILURE); } intr->intr = hdlp->ih_cb_func; intr->handler_id = (uint_t)(uintptr_t)rdip; intr->arg1 = hdlp->ih_cb_arg1; intr->arg2 = hdlp->ih_cb_arg2; intr->socket = socket; mutex_enter(&sockp->ls_ilock); if (sockp->ls_inthandlers == NULL) { intr->next = intr->prev = intr; sockp->ls_inthandlers = intr; sockp->ls_mfintr_dip = rdip; mutex_exit(&sockp->ls_ilock); /* * replace first function handler with * the mfc handler */ handler.handler = (f_tt *)pcmcia_mfc_intr; handler.arg1 = (caddr_t)sockp; handler.arg2 = NULL; } else { insque(intr, sockp->ls_inthandlers); mutex_exit(&sockp->ls_ilock); pispec->intrspec_vec = sockp->ls_intr_vec; pispec->intrspec_pri = sockp->ls_intr_pri; hdlp->ih_pri = sockp->ls_intr_pri; return (DDI_SUCCESS); } } #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_add_intr_impl() let adapter do it\n"); } #endif pispec->intrspec_func = (uint32_t (*)())handler.handler; /* set default IPL then check for override */ pispec->intrspec_pri = sockp->ls_intr_pri; hdlp->ih_pri = pispec->intrspec_pri; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_add_intr_impl() socket=%d irq=%d" " handler_id=0X%x handler=%p arg1=%p arg2=%p\n", handler.socket, handler.irq, handler.handler_id, (void *)handler.handler, handler.arg1, handler.arg2); } #endif if ((ret = SET_IRQ(sockp->ls_if, adapt->pca_dip, &handler)) != SUCCESS) { sockp->ls_error = ret; return (DDI_FAILURE); } #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_add_intr_impl()" " iblk_cookie=%p idev_cookie=%p\n" " ls_flags=0X%x PCS_COOKIES_VALID=0X%x\n", (void *)handler.iblk_cookie, (void *)handler.idev_cookie, sockp->ls_flags, PCS_COOKIES_VALID); } #endif if (!(sockp->ls_flags & PCS_COOKIES_VALID)) { hdlp->ih_pri = (uint_t)(uintptr_t)*handler.iblk_cookie; sockp->ls_iblk = *handler.iblk_cookie; sockp->ls_idev = *handler.idev_cookie; sockp->ls_flags |= PCS_COOKIES_VALID; } return (DDI_SUCCESS); } void pcmcia_remove_intr_impl(dev_info_t *dip, dev_info_t *rdip, ddi_intr_handle_impl_t *hdlp) { struct pcmcia_parent_private *ppd; pcmcia_logical_socket_t *sockp; clear_irq_handler_t handler; struct intrspec *pispec; int socket; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_remove_intr_impl() entered" " dip=%p rdip=%p hdlp=%p\n", (void *)dip, (void *)rdip, (void *)hdlp); } #endif ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(rdip); socket = ppd->ppd_socket; sockp = pcmcia_sockets[socket]; pispec = ppd->ppd_intrspec; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_remove_intr_impl()" " ls_inthandlers=%p ls_intrspec=%p\n", (void *)sockp->ls_inthandlers, (void *)&sockp->ls_intrspec); } #endif /* first handle the multifunction case since it is simple */ mutex_enter(&sockp->ls_ilock); if (sockp->ls_inthandlers != NULL) { /* we must be MFC */ inthandler_t *intr; int remhandler = 0; intr = sockp->ls_inthandlers; /* Check if there is only one handler left */ if ((intr->next == intr) && (intr->prev == intr)) { if (intr->handler_id == (unsigned)(uintptr_t)rdip) { sockp->ls_inthandlers = NULL; remhandler++; kmem_free(intr, sizeof (inthandler_t)); } } else { inthandler_t *first; int done; for (done = 0, first = intr; !done; intr = intr->next) { if (intr->next == first) done++; if (intr->handler_id == (unsigned)(uintptr_t)rdip) { done++; /* * If we're about to remove the * handler at the head of * the list, make the next * handler in line the head. */ if (sockp->ls_inthandlers == intr) sockp->ls_inthandlers = intr->next; remque(intr); kmem_free(intr, sizeof (inthandler_t)); break; } /* handler_id */ } /* for */ } /* intr->next */ if (!remhandler) { mutex_exit(&sockp->ls_ilock); return; } /* need to get the dip that was used to add the handler */ rdip = sockp->ls_mfintr_dip; } mutex_exit(&sockp->ls_ilock); #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_remove_intr_impl()" " pispec=%p rdip=%p\n", (void *)pispec, (void *)rdip); } #endif handler.socket = sockp->ls_socket; handler.handler_id = (uint32_t)(uintptr_t)rdip; handler.handler = (f_tt *)pispec->intrspec_func; CLEAR_IRQ(sockp->ls_if, dip, &handler); } /* Consolidated interrupt processing interface */ /*ARGSUSED*/ int pcmcia_intr_ops(dev_info_t *dip, dev_info_t *rdip, ddi_intr_op_t intr_op, ddi_intr_handle_impl_t *hdlp, void *result) { int ret = DDI_SUCCESS; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) { cmn_err(CE_CONT, "pcmcia_intr_ops() intr_op=%d\n", (int)intr_op); } #endif switch (intr_op) { case DDI_INTROP_GETCAP: *(int *)result = DDI_INTR_FLAG_LEVEL; break; case DDI_INTROP_SETCAP: ret = DDI_ENOTSUP; break; case DDI_INTROP_ALLOC: *(int *)result = hdlp->ih_scratch1; break; case DDI_INTROP_FREE: break; case DDI_INTROP_GETPRI: if (pcmcia_add_intr_impl(dip, rdip, hdlp) != DDI_SUCCESS) return (DDI_FAILURE); *(int *)result = hdlp->ih_pri; pcmcia_remove_intr_impl(dip, rdip, hdlp); break; case DDI_INTROP_SETPRI: break; case DDI_INTROP_ADDISR: ret = pcmcia_add_intr_impl(dip, rdip, hdlp); break; case DDI_INTROP_REMISR: pcmcia_remove_intr_impl(dip, rdip, hdlp); break; case DDI_INTROP_ENABLE: case DDI_INTROP_DISABLE: break; case DDI_INTROP_NINTRS: case DDI_INTROP_NAVAIL: *(int *)result = i_ddi_get_intx_nintrs(rdip); break; case DDI_INTROP_SUPPORTED_TYPES: /* PCI nexus driver supports only fixed interrupts */ *(int *)result = i_ddi_get_intx_nintrs(rdip) ? DDI_INTR_TYPE_FIXED : 0; break; default: ret = DDI_ENOTSUP; break; } return (ret); } #elif defined(__x86) || defined(__amd64) static struct intrspec *pcmcia_intr_get_ispec(dev_info_t *, int, pcmcia_logical_socket_t **); static struct intrspec *pcmcia_intr_add_isr(dev_info_t *, dev_info_t *, ddi_intr_handle_impl_t *); static int pcmcia_intr_enable_isr(dev_info_t *, dev_info_t *, ddi_intr_handle_impl_t *); static void pcmcia_intr_remove_isr(dev_info_t *, dev_info_t *, ddi_intr_handle_impl_t *); static void pcmcia_intr_disable_isr(dev_info_t *, dev_info_t *, ddi_intr_handle_impl_t *); /* * pcmcia_intr_get_ispec: * This is mostly copied from older 'pcmcia_get_intrspec' function */ static struct intrspec * pcmcia_intr_get_ispec(dev_info_t *rdip, int inum, pcmcia_logical_socket_t **sockp) { int socket; struct intrspec *intrspec; struct pcmcia_parent_private *ppd; if ((int)inum > 0 || (ddi_getprop(DDI_DEV_T_ANY, rdip, DDI_PROP_DONTPASS, "interrupts", -1) < 0)) return (NULL); ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(rdip); if (ppd == NULL || ppd->ppd_intrspec == NULL) return (NULL); if ((socket = ppd->ppd_socket) < 0) return (NULL); if ((*sockp = pcmcia_sockets[socket]) == NULL) return (NULL); intrspec = ppd->ppd_intrspec; if (intrspec->intrspec_vec == 0 && (*sockp)->ls_intr_vec != 0) intrspec->intrspec_vec = (*sockp)->ls_intr_vec; return (intrspec); } static struct intrspec * pcmcia_intr_add_isr(dev_info_t *dip, dev_info_t *rdip, ddi_intr_handle_impl_t *hdlp) { int socket; struct intrspec *ispecp; struct pcmcia_adapter *adapt; pcmcia_logical_socket_t *sockp; struct pcmcia_parent_private *ppd; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_intr_add_isr: " "dip=0x%p rdip=0x%p hdlp=0x%p\n", (void *)dip, (void *)rdip, (void *)hdlp); #endif /* PCMCIA_DEBUG */ ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(rdip); socket = ppd->ppd_socket; sockp = pcmcia_sockets[socket]; adapt = sockp->ls_adapter; ispecp = ppd->ppd_intrspec; if (ispecp == NULL) { sockp->ls_error = BAD_IRQ; return (ispecp); } /* * check if multifunction and do the right thing * we put an intercept in between the mfc handler and us so we can * catch and process. We might be able to optimize this depending * on the card features (a future option). */ if (ppd->ppd_flags & PPD_CARD_MULTI && hdlp->ih_cb_func != pcmcia_mfc_intr) { inthandler_t *intr; /* * note that the first function is a special case since it * sets things up. We fall through to the lower code and * get the hardware set up. Subsequent times we just lock * the list and insert the handler and all is well. */ intr = kmem_zalloc(sizeof (inthandler_t), KM_NOSLEEP); if (intr == NULL) { sockp->ls_error = BAD_IRQ; return (NULL); } intr->intr = (uint32_t (*)())hdlp->ih_cb_func; intr->handler_id = (uint32_t)(uintptr_t)rdip; intr->arg1 = hdlp->ih_cb_arg1; intr->arg2 = hdlp->ih_cb_arg2; intr->socket = socket; mutex_enter(&sockp->ls_ilock); if (sockp->ls_inthandlers == NULL) { intr->next = intr->prev = intr; sockp->ls_inthandlers = intr; sockp->ls_mfintr_dip = rdip; } else { insque(intr, sockp->ls_inthandlers); } mutex_exit(&sockp->ls_ilock); return (ispecp); } /* * Do we need to allocate an IRQ at this point or not? */ if (adapt->pca_flags & PCA_RES_NEED_IRQ) { int i, irq; /* * this adapter needs IRQ allocations * this is only necessary if it is the first function on the * card being setup. The socket will keep the allocation info */ /* all functions use same intrspec except mfc handler */ if (hdlp->ih_cb_func == pcmcia_mfc_intr) { /* * We treat this special in order to allow things to * work properly for MFC cards. The intrspec for the * mfc dispatcher is intercepted and taken from the * logical socket in order to not be trying to * multiplex the meaning when ENABLE is called. */ ispecp = &sockp->ls_intrspec; ((ihdl_plat_t *)hdlp->ih_private)->ip_ispecp = ispecp; } if (adapt->pca_flags & PCA_IRQ_ISA) { for (irq = -1, i = 1; irq == -1 && i < 16; i++) { /* find available and usable IRQ level */ if (adapt->pca_avail_intr & (1 << i)) irq = pcmcia_get_intr(dip, i); } } if (irq < 0) { sockp->ls_error = NO_RESOURCE; return (NULL); } hdlp->ih_vector = sockp->ls_intr_vec = irq; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "allocated irq=%x\n", irq); #endif /* PCMCIA_DEBUG */ ispecp->intrspec_vec = sockp->ls_intr_vec; ispecp->intrspec_pri = sockp->ls_intr_pri; return (ispecp); } if (ispecp->intrspec_func != NULL) ispecp->intrspec_func = hdlp->ih_cb_func; /* set default IPL then check for override */ ispecp->intrspec_pri = sockp->ls_intr_pri; return (ispecp); } static int pcmcia_intr_enable_isr(dev_info_t *dip, dev_info_t *rdip, ddi_intr_handle_impl_t *hdlp) { int socket, ret; int irq = 0; /* default case */ dev_info_t *parent = ddi_root_node(); struct intrspec *ispecp; set_irq_handler_t handler; struct pcmcia_adapter *adapt; pcmcia_logical_socket_t *sockp; struct pcmcia_parent_private *ppd; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_intr_enable_isr: " "dip=0x%p rdip=0x%p hdlp=0x%p\n", (void *)dip, (void *)rdip, (void *)hdlp); #endif /* PCMCIA_DEBUG */ ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(rdip); socket = ppd->ppd_socket; sockp = pcmcia_sockets[socket]; adapt = sockp->ls_adapter; ispecp = ppd->ppd_intrspec; ASSERT(ispecp); mutex_enter(&sockp->ls_ilock); if ((sockp->ls_inthandlers != NULL) && ((ihdl_plat_t *)hdlp->ih_private)->ip_ispecp != &sockp->ls_intrspec) { inthandler_t *intr = sockp->ls_inthandlers; ASSERT(ppd->ppd_flags & PPD_CARD_MULTI); /* Only one handler. So, call ddi_add_intr on it */ if ((intr->next == intr) && (intr->prev == intr)) { hdlp->ih_cb_func = pcmcia_mfc_intr; hdlp->ih_cb_arg1 = (caddr_t)sockp; hdlp->ih_cb_arg2 = NULL; ret = (*(DEVI(parent)->devi_ops->devo_bus_ops-> bus_intr_op))(parent, rdip, DDI_INTROP_ENABLE, hdlp, NULL); if (ret == DDI_FAILURE) { sockp->ls_inthandlers = NULL; kmem_free(intr, sizeof (inthandler_t)); sockp->ls_error = BAD_IRQ; mutex_exit(&sockp->ls_ilock); return (ret); } } mutex_exit(&sockp->ls_ilock); hdlp->ih_vector = ispecp->intrspec_vec = sockp->ls_intr_vec; hdlp->ih_pri = sockp->ls_intr_pri; sockp->ls_iblk = (ddi_iblock_cookie_t)(uintptr_t) sockp->ls_intr_pri; sockp->ls_idev.idev_vector = (ushort_t)hdlp->ih_vector; sockp->ls_idev.idev_priority = (ushort_t)sockp->ls_intr_pri; return (DDI_SUCCESS); } mutex_exit(&sockp->ls_ilock); if (adapt->pca_flags & PCA_RES_NEED_IRQ) { if (hdlp->ih_cb_func == pcmcia_mfc_intr) ispecp = (struct intrspec *)&sockp->ls_intrspec; /* XXX: remove it later as this is done in _add_isr as well */ ispecp->intrspec_vec = sockp->ls_intr_vec; ispecp->intrspec_pri = sockp->ls_intr_pri; /* Enable interrupts */ ret = (*(DEVI(parent)->devi_ops->devo_bus_ops->bus_intr_op))( parent, rdip, DDI_INTROP_ENABLE, hdlp, NULL); sockp->ls_iblk = (ddi_iblock_cookie_t)(uintptr_t) sockp->ls_intr_pri; sockp->ls_idev.idev_vector = (ushort_t)sockp->ls_intr_vec; sockp->ls_idev.idev_priority = (ushort_t)sockp->ls_intr_pri; if (ret != DDI_SUCCESS) sockp->ls_error = BAD_IRQ; return (ret); } #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_intr_enable_isr; let adapter do it\n"); #endif /* PCMCIA_DEBUG */ handler.socket = sockp->ls_socket; handler.irq = irq; handler.handler = (f_tt *)hdlp->ih_cb_func; handler.arg1 = hdlp->ih_cb_arg1; handler.arg2 = hdlp->ih_cb_arg2; handler.handler_id = (uint32_t)(uintptr_t)rdip; if (ispecp->intrspec_func != NULL) ispecp->intrspec_func = hdlp->ih_cb_func; /* set default IPL then check for override */ ispecp->intrspec_pri = sockp->ls_intr_pri; if ((ret = SET_IRQ(sockp->ls_if, adapt->pca_dip, &handler)) != SUCCESS) { sockp->ls_error = ret; return (DDI_FAILURE); } ispecp->intrspec_func = hdlp->ih_cb_func; if (!(sockp->ls_flags & PCS_COOKIES_VALID)) { sockp->ls_iblk = *handler.iblk_cookie; sockp->ls_idev = *handler.idev_cookie; sockp->ls_flags |= PCS_COOKIES_VALID; } return (DDI_SUCCESS); } /* ARGSUSED */ static void pcmcia_intr_remove_isr(dev_info_t *dip, dev_info_t *rdip, ddi_intr_handle_impl_t *hdlp) { int done, remhandler = 0; inthandler_t *intr, *first; struct intrspec *ispecp; pcmcia_logical_socket_t *sockp; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_intr_remove_isr: " "dip=0x%p rdip=0x%p hdlp=0x%p\n", (void *)dip, (void *)rdip, (void *)hdlp); #endif /* PCMCIA_DEBUG */ ispecp = pcmcia_intr_get_ispec(rdip, hdlp->ih_inum, &sockp); ASSERT(ispecp); /* first handle the multifunction case since it is simple */ mutex_enter(&sockp->ls_ilock); if (sockp->ls_inthandlers != NULL && ((ihdl_plat_t *)hdlp->ih_private)->ip_ispecp != &sockp->ls_intrspec) { intr = sockp->ls_inthandlers; /* Check if there is only one handler left */ if ((intr->next == intr) && (intr->prev == intr)) { if (intr->handler_id == (uint32_t)(uintptr_t)rdip) { sockp->ls_inthandlers = NULL; remhandler++; kmem_free(intr, sizeof (inthandler_t)); } } else { for (done = 0, first = intr; !done; intr = intr->next) { if (intr->next == first) done++; if (intr->handler_id == (uint32_t)(uintptr_t)rdip) { done++; /* * If we're about to remove the handler * at the head of the list, make the * next handler in line the head. */ if (sockp->ls_inthandlers == intr) sockp->ls_inthandlers = intr->next; remque(intr); kmem_free(intr, sizeof (inthandler_t)); break; } /* handler_id */ } /* end of for */ } /* end of if intr->next */ if (!remhandler) { mutex_exit(&sockp->ls_ilock); return; } } mutex_exit(&sockp->ls_ilock); if (sockp->ls_adapter->pca_flags & PCA_RES_NEED_IRQ) { sockp->ls_intr_vec = 0; ispecp->intrspec_vec = 0; } } static void pcmcia_intr_disable_isr(dev_info_t *dip, dev_info_t *rdip, ddi_intr_handle_impl_t *hdlp) { int socket, ret; dev_info_t *parent; struct intrspec *ispecp; clear_irq_handler_t handler; struct pcmcia_adapter *adapt; pcmcia_logical_socket_t *sockp; struct pcmcia_parent_private *ppd; ihdl_plat_t *ihdl_plat_datap = (ihdl_plat_t *)hdlp->ih_private; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_intr_disable_isr: " "dip=0x%p rdip=0x%p hdlp=0x%p\n", (void *)dip, (void *)rdip, (void *)hdlp); #endif /* PCMCIA_DEBUG */ ppd = (struct pcmcia_parent_private *)ddi_get_parent_data(rdip); socket = ppd->ppd_socket; sockp = pcmcia_sockets[socket]; adapt = sockp->ls_adapter; ispecp = ppd->ppd_intrspec; ASSERT(ispecp); mutex_enter(&sockp->ls_ilock); if (sockp->ls_inthandlers != NULL && ihdl_plat_datap->ip_ispecp != &sockp->ls_intrspec) { inthandler_t *intr = sockp->ls_inthandlers; /* Check if there is only one handler left */ if ((intr->next == intr) && (intr->prev == intr)) { if (intr->handler_id != (uint32_t)(uintptr_t)rdip) /* * need to get the dip that was * used to add the handler */ rdip = sockp->ls_mfintr_dip; ispecp = (struct intrspec *)&sockp->ls_intrspec; } else { /* Don't call cleanup if list still has members */ mutex_exit(&sockp->ls_ilock); return; } } mutex_exit(&sockp->ls_ilock); if (ihdl_plat_datap->ip_ispecp == (struct intrspec *)&sockp->ls_intrspec) ispecp = ihdl_plat_datap->ip_ispecp; if (adapt->pca_flags & PCA_RES_NEED_IRQ) { ret = ispecp->intrspec_vec; parent = ddi_root_node(); ret = (*(DEVI(parent)->devi_ops->devo_bus_ops->bus_intr_op))( parent, rdip, DDI_INTROP_DISABLE, hdlp, NULL); (void) pcmcia_return_intr(dip, hdlp->ih_vector); #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_intr_disable_isr: " "INTROP_DISABLE returned %x\n", ret); #endif /* PCMCIA_DEBUG */ } else { handler.socket = sockp->ls_socket; handler.handler_id = (uint32_t)(uintptr_t)rdip; handler.handler = (f_tt *)ispecp->intrspec_func; ret = CLEAR_IRQ(sockp->ls_if, dip, &handler); #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_intr_disable_isr: " "CLEAR_IRQ returned %x\n", ret); #endif /* PCMCIA_DEBUG */ } } /* Consolidated interrupt processing interface */ int pcmcia_intr_ops(dev_info_t *dip, dev_info_t *rdip, ddi_intr_op_t intr_op, ddi_intr_handle_impl_t *hdlp, void *result) { struct intrspec *ispecp; pcmcia_logical_socket_t *sockp; #if defined(PCMCIA_DEBUG) if (pcmcia_debug) cmn_err(CE_CONT, "pcmcia_intr_ops: " "dip=0x%p rdip=0x%p op=0x%x hdlp=0x%p\n", (void *)dip, (void *)rdip, intr_op, (void *)hdlp); #endif /* PCMCIA_DEBUG */ switch (intr_op) { case DDI_INTROP_SUPPORTED_TYPES: if (ddi_get_parent_data(rdip) == NULL) { *(int *)result = 0; return (DDI_FAILURE); } *(int *)result = DDI_INTR_TYPE_FIXED; break; case DDI_INTROP_GETCAP: *(int *)result = DDI_INTR_FLAG_LEVEL; break; case DDI_INTROP_NINTRS: case DDI_INTROP_NAVAIL: if (i_ddi_get_intx_nintrs(rdip) == 0) { *(int *)result = 0; return (DDI_FAILURE); } *(int *)result = 1; /* for PCMCIA there is only one intr */ break; case DDI_INTROP_ALLOC: if ((ispecp = pcmcia_intr_get_ispec(rdip, hdlp->ih_inum, &sockp)) == NULL) return (DDI_FAILURE); *(int *)result = hdlp->ih_scratch1; break; case DDI_INTROP_FREE: break; case DDI_INTROP_GETPRI: ispecp = pcmcia_intr_get_ispec(rdip, hdlp->ih_inum, &sockp); if (ispecp == NULL) { *(int *)result = 0; return (DDI_FAILURE); } *(int *)result = ispecp->intrspec_pri = sockp->ls_intr_pri; break; case DDI_INTROP_SETPRI: if (*(int *)result > LOCK_LEVEL) return (DDI_FAILURE); ispecp = pcmcia_intr_get_ispec(rdip, hdlp->ih_inum, &sockp); ASSERT(ispecp); ispecp->intrspec_pri = sockp->ls_intr_pri = *(int *)result; break; case DDI_INTROP_ADDISR: if ((ispecp = pcmcia_intr_add_isr(dip, rdip, hdlp)) == NULL) return (DDI_FAILURE); ((ihdl_plat_t *)hdlp->ih_private)->ip_ispecp = ispecp; break; case DDI_INTROP_REMISR: pcmcia_intr_remove_isr(dip, rdip, hdlp); break; case DDI_INTROP_ENABLE: if (pcmcia_intr_enable_isr(dip, rdip, hdlp) != DDI_SUCCESS) return (DDI_FAILURE); break; case DDI_INTROP_DISABLE: pcmcia_intr_disable_isr(dip, rdip, hdlp); break; default: return (DDI_ENOTSUP); } return (DDI_SUCCESS); } #endif