/* * Copyright (C) 2013-2014 Red Hat, Inc. All rights reserved. * * This library is free software; you can redistribute it and/or * modify it under the terms of the GNU Lesser General Public * License as published by the Free Software Foundation; either * version 2.1 of the License, or (at your option) any later version. * * This library is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU * Lesser General Public License for more details. * * You should have received a copy of the GNU Lesser General Public * License along with this library; if not, write to the Free Software * Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA * * Authors: Tomas Smetana * Peter Schiffer */ #include #include "LMI_PCIDevice.h" #include "utils.h" #include "PCIDev.h" static const CMPIBroker* _cb = NULL; struct pci_access *acc_dev = NULL; static void LMI_PCIDeviceInitialize(const CMPIContext *ctx) { lmi_init(provider_name, _cb, ctx, provider_config_defaults); if (init_pci_access(&acc_dev, PCI_FILL_IDENT | PCI_FILL_IRQ | PCI_FILL_BASES | PCI_FILL_ROM_BASE | PCI_FILL_CLASS | PCI_FILL_CAPS) != 0) { lmi_error("Failed to access the PCI bus."); abort(); } } static CMPIStatus LMI_PCIDeviceCleanup( CMPIInstanceMI* mi, const CMPIContext* cc, CMPIBoolean term) { cleanup_pci_access(&acc_dev); CMReturn(CMPI_RC_OK); } static CMPIStatus LMI_PCIDeviceEnumInstanceNames( CMPIInstanceMI* mi, const CMPIContext* cc, const CMPIResult* cr, const CMPIObjectPath* cop) { return KDefaultEnumerateInstanceNames(_cb, mi, cc, cr, cop); } static CMPIStatus LMI_PCIDeviceEnumInstances( CMPIInstanceMI* mi, const CMPIContext* cc, const CMPIResult* cr, const CMPIObjectPath* cop, const char** properties) { LMI_PCIDevice lmi_dev; const char *ns = KNameSpace(cop); int i; CMPICount count; CMPIUint16 pci_cap; u8 rev, cache_line; u16 svid, subid, status, command_reg; struct pci_dev *dev; struct pci_cap *cap; char vendor_buf[BUFLEN], *vendor_name; char device_buf[BUFLEN], *device_name; char subsys_buf[BUFLEN], *subsys_name; char svendor_buf[BUFLEN], *svendor_name; char device_id_str[BUFLEN]; char instance_id[BUFLEN]; for (dev = acc_dev->devices; dev; dev = dev->next) { /* Ignore PCI Bridges */ /* Throw away the lower 8 bits denoting the subclass */ if (((dev->device_class) >> 8) == LMI_PCIDevice_ClassCode_Bridge) { continue; } vendor_name = pci_lookup_name(acc_dev, vendor_buf, BUFLEN, PCI_LOOKUP_VENDOR, dev->vendor_id); device_name = pci_lookup_name(acc_dev, device_buf, BUFLEN, PCI_LOOKUP_DEVICE, dev->vendor_id, dev->device_id); get_subid(dev, &svid, &subid); subsys_name = pci_lookup_name(acc_dev, subsys_buf, BUFLEN, PCI_LOOKUP_DEVICE | PCI_LOOKUP_SUBSYSTEM, dev->vendor_id, dev->device_id, svid, subid); svendor_name = pci_lookup_name(acc_dev, svendor_buf, BUFLEN, PCI_LOOKUP_VENDOR | PCI_LOOKUP_SUBSYSTEM, svid); status = pci_read_word(dev, PCI_STATUS); rev = pci_read_byte(dev, PCI_REVISION_ID); cache_line = pci_read_byte(dev, PCI_CACHE_LINE_SIZE); command_reg = pci_read_word(dev, PCI_COMMAND); snprintf(device_id_str, BUFLEN, "%02x:%02x.%u", dev->bus, dev->dev, dev->func); snprintf(instance_id, BUFLEN, LMI_ORGID ":" LMI_PCIDevice_ClassName ":%s", device_id_str); LMI_PCIDevice_Init(&lmi_dev, _cb, ns); LMI_PCIDevice_Set_SystemCreationClassName(&lmi_dev, lmi_get_system_creation_class_name()); LMI_PCIDevice_Set_SystemName(&lmi_dev, lmi_get_system_name()); LMI_PCIDevice_Set_CreationClassName(&lmi_dev, LMI_PCIDevice_ClassName); LMI_PCIDevice_Set_Caption(&lmi_dev, "This object represents one logical PCI device contained in system."); LMI_PCIDevice_Set_PrimaryStatus(&lmi_dev, LMI_PCIDevice_PrimaryStatus_Unknown); LMI_PCIDevice_Set_HealthState(&lmi_dev, LMI_PCIDevice_HealthState_Unknown); LMI_PCIDevice_Set_DeviceID(&lmi_dev, device_id_str); LMI_PCIDevice_Set_BusNumber(&lmi_dev, dev->bus); LMI_PCIDevice_Set_DeviceNumber(&lmi_dev, dev->dev); LMI_PCIDevice_Set_FunctionNumber(&lmi_dev, dev->func); LMI_PCIDevice_Set_Name(&lmi_dev, device_name); LMI_PCIDevice_Set_ElementName(&lmi_dev, device_name); LMI_PCIDevice_Set_VendorID(&lmi_dev, dev->vendor_id); LMI_PCIDevice_Set_PCIDeviceID(&lmi_dev, dev->device_id); LMI_PCIDevice_Set_PCIDeviceName(&lmi_dev, device_name); if (vendor_name) { LMI_PCIDevice_Set_VendorName(&lmi_dev, vendor_name); } if (svid > 0 && svid < 65535) { LMI_PCIDevice_Set_SubsystemVendorID(&lmi_dev, svid); if (svendor_name) { LMI_PCIDevice_Set_SubsystemVendorName(&lmi_dev, svendor_name); } } if (subid > 0 && subid < 65535) { LMI_PCIDevice_Set_SubsystemID(&lmi_dev, subid); if (subsys_name) { LMI_PCIDevice_Set_SubsystemName(&lmi_dev, subsys_name); } } if (rev) { LMI_PCIDevice_Set_RevisionID(&lmi_dev, rev); } if (cache_line) { LMI_PCIDevice_Set_CacheLineSize(&lmi_dev, cache_line); } if (command_reg) { LMI_PCIDevice_Set_CommandRegister(&lmi_dev, command_reg); } /* Throw away the lower 8 bits denoting the subclass */ LMI_PCIDevice_Set_ClassCode(&lmi_dev, ((dev->device_class) >> 8)); if (status) { if ((status & PCI_STATUS_DEVSEL_MASK) == PCI_STATUS_DEVSEL_SLOW) { LMI_PCIDevice_Set_DeviceSelectTiming(&lmi_dev, LMI_PCIDevice_DeviceSelectTiming_Slow); } else if ((status & PCI_STATUS_DEVSEL_MASK) == PCI_STATUS_DEVSEL_MEDIUM) { LMI_PCIDevice_Set_DeviceSelectTiming(&lmi_dev, LMI_PCIDevice_DeviceSelectTiming_Medium); } else if ((status & PCI_STATUS_DEVSEL_MASK) == PCI_STATUS_DEVSEL_FAST) { LMI_PCIDevice_Set_DeviceSelectTiming(&lmi_dev, LMI_PCIDevice_DeviceSelectTiming_Fast); } } if (dev->rom_base_addr) { LMI_PCIDevice_Set_ExpansionROMBaseAddress(&lmi_dev, dev->rom_base_addr); } LMI_PCIDevice_Set_InstanceID(&lmi_dev, instance_id); LMI_PCIDevice_Set_InterruptPin(&lmi_dev, pci_read_byte(dev, PCI_INTERRUPT_PIN)); LMI_PCIDevice_Set_LatencyTimer(&lmi_dev, pci_read_byte(dev, PCI_LATENCY_TIMER)); /* PCI Base Addresses */ /* Count them */ count = 0; for (i = 0; i < 6; i++) { if (dev->base_addr[i]) { count++; } } /* Set PCI Base Addresses */ if (count > 0) { #ifdef PCI_HAVE_64BIT_ADDRESS LMI_PCIDevice_Init_BaseAddress64(&lmi_dev, count); #else LMI_PCIDevice_Init_BaseAddress(&lmi_dev, count); #endif count = 0; for (i = 0; i < 6; i++) { if (dev->base_addr[i]) { #ifdef PCI_HAVE_64BIT_ADDRESS LMI_PCIDevice_Set_BaseAddress64(&lmi_dev, count++, dev->base_addr[i]); #else LMI_PCIDevice_Set_BaseAddress(&lmi_dev, count++, dev->base_addr[i]); #endif } } } /* PCI Capabilities */ /* Count PCI Capabilities */ count = 0; if (status & PCI_STATUS_66MHZ) { count++; } if (status & PCI_STATUS_UDF) { count++; } if (status & PCI_STATUS_FAST_BACK) { count++; } for (cap = dev->first_cap; cap; cap = cap->next) { pci_cap = get_capability(cap->id); if (pci_cap > 1) { count++; } } /* Get PCI Capabilities */ if (count > 0) { LMI_PCIDevice_Init_Capabilities(&lmi_dev, count); count = 0; if (status & PCI_STATUS_66MHZ) { LMI_PCIDevice_Set_Capabilities(&lmi_dev, count++, LMI_PCIDevice_Capabilities_Supports_66MHz); } if (status & PCI_STATUS_UDF) { LMI_PCIDevice_Set_Capabilities(&lmi_dev, count++, LMI_PCIDevice_Capabilities_Supports_User_Definable_Features); } if (status & PCI_STATUS_FAST_BACK) { LMI_PCIDevice_Set_Capabilities(&lmi_dev, count++, LMI_PCIDevice_Capabilities_Supports_Fast_Back_to_Back_Transactions); } for (cap = dev->first_cap; cap; cap = cap->next) { pci_cap = get_capability(cap->id); if (pci_cap > 1) { LMI_PCIDevice_Set_Capabilities(&lmi_dev, count++, pci_cap); } } } KReturnInstance(cr, lmi_dev); } CMReturn(CMPI_RC_OK); } static CMPIStatus LMI_PCIDeviceGetInstance( CMPIInstanceMI* mi, const CMPIContext* cc, const CMPIResult* cr, const CMPIObjectPath* cop, const char** properties) { return KDefaultGetInstance( _cb, mi, cc, cr, cop, properties); } static CMPIStatus LMI_PCIDeviceCreateInstance( CMPIInstanceMI* mi, const CMPIContext* cc, const CMPIResult* cr, const CMPIObjectPath* cop, const CMPIInstance* ci) { CMReturn(CMPI_RC_ERR_NOT_SUPPORTED); } static CMPIStatus LMI_PCIDeviceModifyInstance( CMPIInstanceMI* mi, const CMPIContext* cc, const CMPIResult* cr, const CMPIObjectPath* cop, const CMPIInstance* ci, const char** properties) { CMReturn(CMPI_RC_ERR_NOT_SUPPORTED); } static CMPIStatus LMI_PCIDeviceDeleteInstance( CMPIInstanceMI* mi, const CMPIContext* cc, const CMPIResult* cr, const CMPIObjectPath* cop) { CMReturn(CMPI_RC_ERR_NOT_SUPPORTED); } static CMPIStatus LMI_PCIDeviceExecQuery( CMPIInstanceMI* mi, const CMPIContext* cc, const CMPIResult* cr, const CMPIObjectPath* cop, const char* lang, const char* query) { CMReturn(CMPI_RC_ERR_NOT_SUPPORTED); } CMInstanceMIStub( LMI_PCIDevice, LMI_PCIDevice, _cb, LMI_PCIDeviceInitialize(ctx)) static CMPIStatus LMI_PCIDeviceMethodCleanup( CMPIMethodMI* mi, const CMPIContext* cc, CMPIBoolean term) { CMReturn(CMPI_RC_OK); } static CMPIStatus LMI_PCIDeviceInvokeMethod( CMPIMethodMI* mi, const CMPIContext* cc, const CMPIResult* cr, const CMPIObjectPath* cop, const char* meth, const CMPIArgs* in, CMPIArgs* out) { return LMI_PCIDevice_DispatchMethod( _cb, mi, cc, cr, cop, meth, in, out); } CMMethodMIStub( LMI_PCIDevice, LMI_PCIDevice, _cb, LMI_PCIDeviceInitialize(ctx)) KUint32 LMI_PCIDevice_RequestStateChange( const CMPIBroker* cb, CMPIMethodMI* mi, const CMPIContext* context, const LMI_PCIDeviceRef* self, const KUint16* RequestedState, KRef* Job, const KDateTime* TimeoutPeriod, CMPIStatus* status) { KUint32 result = KUINT32_INIT; KSetStatus(status, ERR_NOT_SUPPORTED); return result; } KUint32 LMI_PCIDevice_SetPowerState( const CMPIBroker* cb, CMPIMethodMI* mi, const CMPIContext* context, const LMI_PCIDeviceRef* self, const KUint16* PowerState, const KDateTime* Time, CMPIStatus* status) { KUint32 result = KUINT32_INIT; KSetStatus(status, ERR_NOT_SUPPORTED); return result; } KUint32 LMI_PCIDevice_Reset( const CMPIBroker* cb, CMPIMethodMI* mi, const CMPIContext* context, const LMI_PCIDeviceRef* self, CMPIStatus* status) { KUint32 result = KUINT32_INIT; KSetStatus(status, ERR_NOT_SUPPORTED); return result; } KUint32 LMI_PCIDevice_EnableDevice( const CMPIBroker* cb, CMPIMethodMI* mi, const CMPIContext* context, const LMI_PCIDeviceRef* self, const KBoolean* Enabled, CMPIStatus* status) { KUint32 result = KUINT32_INIT; KSetStatus(status, ERR_NOT_SUPPORTED); return result; } KUint32 LMI_PCIDevice_OnlineDevice( const CMPIBroker* cb, CMPIMethodMI* mi, const CMPIContext* context, const LMI_PCIDeviceRef* self, const KBoolean* Online, CMPIStatus* status) { KUint32 result = KUINT32_INIT; KSetStatus(status, ERR_NOT_SUPPORTED); return result; } KUint32 LMI_PCIDevice_QuiesceDevice( const CMPIBroker* cb, CMPIMethodMI* mi, const CMPIContext* context, const LMI_PCIDeviceRef* self, const KBoolean* Quiesce, CMPIStatus* status) { KUint32 result = KUINT32_INIT; KSetStatus(status, ERR_NOT_SUPPORTED); return result; } KUint32 LMI_PCIDevice_SaveProperties( const CMPIBroker* cb, CMPIMethodMI* mi, const CMPIContext* context, const LMI_PCIDeviceRef* self, CMPIStatus* status) { KUint32 result = KUINT32_INIT; KSetStatus(status, ERR_NOT_SUPPORTED); return result; } KUint32 LMI_PCIDevice_RestoreProperties( const CMPIBroker* cb, CMPIMethodMI* mi, const CMPIContext* context, const LMI_PCIDeviceRef* self, CMPIStatus* status) { KUint32 result = KUINT32_INIT; KSetStatus(status, ERR_NOT_SUPPORTED); return result; } KUint8 LMI_PCIDevice_BISTExecution( const CMPIBroker* cb, CMPIMethodMI* mi, const CMPIContext* context, const LMI_PCIDeviceRef* self, CMPIStatus* status) { KUint8 result = KUINT8_INIT; KSetStatus(status, ERR_NOT_SUPPORTED); return result; } KONKRET_REGISTRATION( "root/cimv2", "LMI_PCIDevice", "LMI_PCIDevice", "instance method")