Loading Documentation/acpi/apei/output_format.txt 0 → 100644 +122 −0 Original line number Diff line number Diff line APEI output format ~~~~~~~~~~~~~~~~~~ APEI uses printk as hardware error reporting interface, the output format is as follow. <error record> := APEI generic hardware error status severity: <integer>, <severity string> section: <integer>, severity: <integer>, <severity string> flags: <integer> <section flags strings> fru_id: <uuid string> fru_text: <string> section_type: <section type string> <section data> <severity string>* := recoverable | fatal | corrected | info <section flags strings># := [primary][, containment warning][, reset][, threshold exceeded]\ [, resource not accessible][, latent error] <section type string> := generic processor error | memory error | \ PCIe error | unknown, <uuid string> <section data> := <generic processor section data> | <memory section data> | \ <pcie section data> | <null> <generic processor section data> := [processor_type: <integer>, <proc type string>] [processor_isa: <integer>, <proc isa string>] [error_type: <integer> <proc error type strings>] [operation: <integer>, <proc operation string>] [flags: <integer> <proc flags strings>] [level: <integer>] [version_info: <integer>] [processor_id: <integer>] [target_address: <integer>] [requestor_id: <integer>] [responder_id: <integer>] [IP: <integer>] <proc type string>* := IA32/X64 | IA64 <proc isa string>* := IA32 | IA64 | X64 <processor error type strings># := [cache error][, TLB error][, bus error][, micro-architectural error] <proc operation string>* := unknown or generic | data read | data write | \ instruction execution <proc flags strings># := [restartable][, precise IP][, overflow][, corrected] <memory section data> := [error_status: <integer>] [physical_address: <integer>] [physical_address_mask: <integer>] [node: <integer>] [card: <integer>] [module: <integer>] [bank: <integer>] [device: <integer>] [row: <integer>] [column: <integer>] [bit_position: <integer>] [requestor_id: <integer>] [responder_id: <integer>] [target_id: <integer>] [error_type: <integer>, <mem error type string>] <mem error type string>* := unknown | no error | single-bit ECC | multi-bit ECC | \ single-symbol chipkill ECC | multi-symbol chipkill ECC | master abort | \ target abort | parity error | watchdog timeout | invalid address | \ mirror Broken | memory sparing | scrub corrected error | \ scrub uncorrected error <pcie section data> := [port_type: <integer>, <pcie port type string>] [version: <integer>.<integer>] [command: <integer>, status: <integer>] [device_id: <integer>:<integer>:<integer>.<integer> slot: <integer> secondary_bus: <integer> vendor_id: <integer>, device_id: <integer> class_code: <integer>] [serial number: <integer>, <integer>] [bridge: secondary_status: <integer>, control: <integer>] <pcie port type string>* := PCIe end point | legacy PCI end point | \ unknown | unknown | root port | upstream switch port | \ downstream switch port | PCIe to PCI/PCI-X bridge | \ PCI/PCI-X to PCIe bridge | root complex integrated endpoint device | \ root complex event collector Where, [] designate corresponding content is optional All <field string> description with * has the following format: field: <integer>, <field string> Where value of <integer> should be the position of "string" in <field string> description. Otherwise, <field string> will be "unknown". All <field strings> description with # has the following format: field: <integer> <field strings> Where each string in <fields strings> corresponding to one set bit of <integer>. The bit position is the position of "string" in <field strings> description. For more detailed explanation of every field, please refer to UEFI specification version 2.3 or later, section Appendix N: Common Platform Error Record. arch/x86/kernel/acpi/boot.c +1 −0 Original line number Diff line number Diff line Loading @@ -504,6 +504,7 @@ int acpi_gsi_to_irq(u32 gsi, unsigned int *irq) return 0; } EXPORT_SYMBOL_GPL(acpi_gsi_to_irq); int acpi_isa_irq_to_gsi(unsigned isa_irq, u32 *gsi) { Loading arch/x86/kernel/dumpstack.c +1 −0 Original line number Diff line number Diff line Loading @@ -240,6 +240,7 @@ unsigned __kprobes long oops_begin(void) bust_spinlocks(1); return flags; } EXPORT_SYMBOL_GPL(oops_begin); void __kprobes oops_end(unsigned long flags, struct pt_regs *regs, int signr) { Loading drivers/acpi/apei/apei-internal.h +2 −0 Original line number Diff line number Diff line Loading @@ -109,6 +109,8 @@ static inline u32 apei_estatus_len(struct acpi_hest_generic_status *estatus) return sizeof(*estatus) + estatus->data_length; } void apei_estatus_print(const char *pfx, const struct acpi_hest_generic_status *estatus); int apei_estatus_check_header(const struct acpi_hest_generic_status *estatus); int apei_estatus_check(const struct acpi_hest_generic_status *estatus); #endif drivers/acpi/apei/cper.c +311 −0 Original line number Diff line number Diff line Loading @@ -46,6 +46,317 @@ u64 cper_next_record_id(void) } EXPORT_SYMBOL_GPL(cper_next_record_id); static const char *cper_severity_strs[] = { "recoverable", "fatal", "corrected", "info", }; static const char *cper_severity_str(unsigned int severity) { return severity < ARRAY_SIZE(cper_severity_strs) ? cper_severity_strs[severity] : "unknown"; } /* * cper_print_bits - print strings for set bits * @pfx: prefix for each line, including log level and prefix string * @bits: bit mask * @strs: string array, indexed by bit position * @strs_size: size of the string array: @strs * * For each set bit in @bits, print the corresponding string in @strs. * If the output length is longer than 80, multiple line will be * printed, with @pfx is printed at the beginning of each line. */ static void cper_print_bits(const char *pfx, unsigned int bits, const char *strs[], unsigned int strs_size) { int i, len = 0; const char *str; char buf[84]; for (i = 0; i < strs_size; i++) { if (!(bits & (1U << i))) continue; str = strs[i]; if (len && len + strlen(str) + 2 > 80) { printk("%s\n", buf); len = 0; } if (!len) len = snprintf(buf, sizeof(buf), "%s%s", pfx, str); else len += snprintf(buf+len, sizeof(buf)-len, ", %s", str); } if (len) printk("%s\n", buf); } static const char *cper_proc_type_strs[] = { "IA32/X64", "IA64", }; static const char *cper_proc_isa_strs[] = { "IA32", "IA64", "X64", }; static const char *cper_proc_error_type_strs[] = { "cache error", "TLB error", "bus error", "micro-architectural error", }; static const char *cper_proc_op_strs[] = { "unknown or generic", "data read", "data write", "instruction execution", }; static const char *cper_proc_flag_strs[] = { "restartable", "precise IP", "overflow", "corrected", }; static void cper_print_proc_generic(const char *pfx, const struct cper_sec_proc_generic *proc) { if (proc->validation_bits & CPER_PROC_VALID_TYPE) printk("%s""processor_type: %d, %s\n", pfx, proc->proc_type, proc->proc_type < ARRAY_SIZE(cper_proc_type_strs) ? cper_proc_type_strs[proc->proc_type] : "unknown"); if (proc->validation_bits & CPER_PROC_VALID_ISA) printk("%s""processor_isa: %d, %s\n", pfx, proc->proc_isa, proc->proc_isa < ARRAY_SIZE(cper_proc_isa_strs) ? cper_proc_isa_strs[proc->proc_isa] : "unknown"); if (proc->validation_bits & CPER_PROC_VALID_ERROR_TYPE) { printk("%s""error_type: 0x%02x\n", pfx, proc->proc_error_type); cper_print_bits(pfx, proc->proc_error_type, cper_proc_error_type_strs, ARRAY_SIZE(cper_proc_error_type_strs)); } if (proc->validation_bits & CPER_PROC_VALID_OPERATION) printk("%s""operation: %d, %s\n", pfx, proc->operation, proc->operation < ARRAY_SIZE(cper_proc_op_strs) ? cper_proc_op_strs[proc->operation] : "unknown"); if (proc->validation_bits & CPER_PROC_VALID_FLAGS) { printk("%s""flags: 0x%02x\n", pfx, proc->flags); cper_print_bits(pfx, proc->flags, cper_proc_flag_strs, ARRAY_SIZE(cper_proc_flag_strs)); } if (proc->validation_bits & CPER_PROC_VALID_LEVEL) printk("%s""level: %d\n", pfx, proc->level); if (proc->validation_bits & CPER_PROC_VALID_VERSION) printk("%s""version_info: 0x%016llx\n", pfx, proc->cpu_version); if (proc->validation_bits & CPER_PROC_VALID_ID) printk("%s""processor_id: 0x%016llx\n", pfx, proc->proc_id); if (proc->validation_bits & CPER_PROC_VALID_TARGET_ADDRESS) printk("%s""target_address: 0x%016llx\n", pfx, proc->target_addr); if (proc->validation_bits & CPER_PROC_VALID_REQUESTOR_ID) printk("%s""requestor_id: 0x%016llx\n", pfx, proc->requestor_id); if (proc->validation_bits & CPER_PROC_VALID_RESPONDER_ID) printk("%s""responder_id: 0x%016llx\n", pfx, proc->responder_id); if (proc->validation_bits & CPER_PROC_VALID_IP) printk("%s""IP: 0x%016llx\n", pfx, proc->ip); } static const char *cper_mem_err_type_strs[] = { "unknown", "no error", "single-bit ECC", "multi-bit ECC", "single-symbol chipkill ECC", "multi-symbol chipkill ECC", "master abort", "target abort", "parity error", "watchdog timeout", "invalid address", "mirror Broken", "memory sparing", "scrub corrected error", "scrub uncorrected error", }; static void cper_print_mem(const char *pfx, const struct cper_sec_mem_err *mem) { if (mem->validation_bits & CPER_MEM_VALID_ERROR_STATUS) printk("%s""error_status: 0x%016llx\n", pfx, mem->error_status); if (mem->validation_bits & CPER_MEM_VALID_PHYSICAL_ADDRESS) printk("%s""physical_address: 0x%016llx\n", pfx, mem->physical_addr); if (mem->validation_bits & CPER_MEM_VALID_PHYSICAL_ADDRESS_MASK) printk("%s""physical_address_mask: 0x%016llx\n", pfx, mem->physical_addr_mask); if (mem->validation_bits & CPER_MEM_VALID_NODE) printk("%s""node: %d\n", pfx, mem->node); if (mem->validation_bits & CPER_MEM_VALID_CARD) printk("%s""card: %d\n", pfx, mem->card); if (mem->validation_bits & CPER_MEM_VALID_MODULE) printk("%s""module: %d\n", pfx, mem->module); if (mem->validation_bits & CPER_MEM_VALID_BANK) printk("%s""bank: %d\n", pfx, mem->bank); if (mem->validation_bits & CPER_MEM_VALID_DEVICE) printk("%s""device: %d\n", pfx, mem->device); if (mem->validation_bits & CPER_MEM_VALID_ROW) printk("%s""row: %d\n", pfx, mem->row); if (mem->validation_bits & CPER_MEM_VALID_COLUMN) printk("%s""column: %d\n", pfx, mem->column); if (mem->validation_bits & CPER_MEM_VALID_BIT_POSITION) printk("%s""bit_position: %d\n", pfx, mem->bit_pos); if (mem->validation_bits & CPER_MEM_VALID_REQUESTOR_ID) printk("%s""requestor_id: 0x%016llx\n", pfx, mem->requestor_id); if (mem->validation_bits & CPER_MEM_VALID_RESPONDER_ID) printk("%s""responder_id: 0x%016llx\n", pfx, mem->responder_id); if (mem->validation_bits & CPER_MEM_VALID_TARGET_ID) printk("%s""target_id: 0x%016llx\n", pfx, mem->target_id); if (mem->validation_bits & CPER_MEM_VALID_ERROR_TYPE) { u8 etype = mem->error_type; printk("%s""error_type: %d, %s\n", pfx, etype, etype < ARRAY_SIZE(cper_mem_err_type_strs) ? cper_mem_err_type_strs[etype] : "unknown"); } } static const char *cper_pcie_port_type_strs[] = { "PCIe end point", "legacy PCI end point", "unknown", "unknown", "root port", "upstream switch port", "downstream switch port", "PCIe to PCI/PCI-X bridge", "PCI/PCI-X to PCIe bridge", "root complex integrated endpoint device", "root complex event collector", }; static void cper_print_pcie(const char *pfx, const struct cper_sec_pcie *pcie) { if (pcie->validation_bits & CPER_PCIE_VALID_PORT_TYPE) printk("%s""port_type: %d, %s\n", pfx, pcie->port_type, pcie->port_type < ARRAY_SIZE(cper_pcie_port_type_strs) ? cper_pcie_port_type_strs[pcie->port_type] : "unknown"); if (pcie->validation_bits & CPER_PCIE_VALID_VERSION) printk("%s""version: %d.%d\n", pfx, pcie->version.major, pcie->version.minor); if (pcie->validation_bits & CPER_PCIE_VALID_COMMAND_STATUS) printk("%s""command: 0x%04x, status: 0x%04x\n", pfx, pcie->command, pcie->status); if (pcie->validation_bits & CPER_PCIE_VALID_DEVICE_ID) { const __u8 *p; printk("%s""device_id: %04x:%02x:%02x.%x\n", pfx, pcie->device_id.segment, pcie->device_id.bus, pcie->device_id.device, pcie->device_id.function); printk("%s""slot: %d\n", pfx, pcie->device_id.slot >> CPER_PCIE_SLOT_SHIFT); printk("%s""secondary_bus: 0x%02x\n", pfx, pcie->device_id.secondary_bus); printk("%s""vendor_id: 0x%04x, device_id: 0x%04x\n", pfx, pcie->device_id.vendor_id, pcie->device_id.device_id); p = pcie->device_id.class_code; printk("%s""class_code: %02x%02x%02x\n", pfx, p[0], p[1], p[2]); } if (pcie->validation_bits & CPER_PCIE_VALID_SERIAL_NUMBER) printk("%s""serial number: 0x%04x, 0x%04x\n", pfx, pcie->serial_number.lower, pcie->serial_number.upper); if (pcie->validation_bits & CPER_PCIE_VALID_BRIDGE_CONTROL_STATUS) printk( "%s""bridge: secondary_status: 0x%04x, control: 0x%04x\n", pfx, pcie->bridge.secondary_status, pcie->bridge.control); } static const char *apei_estatus_section_flag_strs[] = { "primary", "containment warning", "reset", "threshold exceeded", "resource not accessible", "latent error", }; static void apei_estatus_print_section( const char *pfx, const struct acpi_hest_generic_data *gdata, int sec_no) { uuid_le *sec_type = (uuid_le *)gdata->section_type; __u16 severity; severity = gdata->error_severity; printk("%s""section: %d, severity: %d, %s\n", pfx, sec_no, severity, cper_severity_str(severity)); printk("%s""flags: 0x%02x\n", pfx, gdata->flags); cper_print_bits(pfx, gdata->flags, apei_estatus_section_flag_strs, ARRAY_SIZE(apei_estatus_section_flag_strs)); if (gdata->validation_bits & CPER_SEC_VALID_FRU_ID) printk("%s""fru_id: %pUl\n", pfx, (uuid_le *)gdata->fru_id); if (gdata->validation_bits & CPER_SEC_VALID_FRU_TEXT) printk("%s""fru_text: %.20s\n", pfx, gdata->fru_text); if (!uuid_le_cmp(*sec_type, CPER_SEC_PROC_GENERIC)) { struct cper_sec_proc_generic *proc_err = (void *)(gdata + 1); printk("%s""section_type: general processor error\n", pfx); if (gdata->error_data_length >= sizeof(*proc_err)) cper_print_proc_generic(pfx, proc_err); else goto err_section_too_small; } else if (!uuid_le_cmp(*sec_type, CPER_SEC_PLATFORM_MEM)) { struct cper_sec_mem_err *mem_err = (void *)(gdata + 1); printk("%s""section_type: memory error\n", pfx); if (gdata->error_data_length >= sizeof(*mem_err)) cper_print_mem(pfx, mem_err); else goto err_section_too_small; } else if (!uuid_le_cmp(*sec_type, CPER_SEC_PCIE)) { struct cper_sec_pcie *pcie = (void *)(gdata + 1); printk("%s""section_type: PCIe error\n", pfx); if (gdata->error_data_length >= sizeof(*pcie)) cper_print_pcie(pfx, pcie); else goto err_section_too_small; } else printk("%s""section type: unknown, %pUl\n", pfx, sec_type); return; err_section_too_small: pr_err(FW_WARN "error section length is too small\n"); } void apei_estatus_print(const char *pfx, const struct acpi_hest_generic_status *estatus) { struct acpi_hest_generic_data *gdata; unsigned int data_len, gedata_len; int sec_no = 0; __u16 severity; printk("%s""APEI generic hardware error status\n", pfx); severity = estatus->error_severity; printk("%s""severity: %d, %s\n", pfx, severity, cper_severity_str(severity)); data_len = estatus->data_length; gdata = (struct acpi_hest_generic_data *)(estatus + 1); while (data_len > sizeof(*gdata)) { gedata_len = gdata->error_data_length; apei_estatus_print_section(pfx, gdata, sec_no); data_len -= gedata_len + sizeof(*gdata); sec_no++; } } EXPORT_SYMBOL_GPL(apei_estatus_print); int apei_estatus_check_header(const struct acpi_hest_generic_status *estatus) { if (estatus->data_length && Loading Loading
Documentation/acpi/apei/output_format.txt 0 → 100644 +122 −0 Original line number Diff line number Diff line APEI output format ~~~~~~~~~~~~~~~~~~ APEI uses printk as hardware error reporting interface, the output format is as follow. <error record> := APEI generic hardware error status severity: <integer>, <severity string> section: <integer>, severity: <integer>, <severity string> flags: <integer> <section flags strings> fru_id: <uuid string> fru_text: <string> section_type: <section type string> <section data> <severity string>* := recoverable | fatal | corrected | info <section flags strings># := [primary][, containment warning][, reset][, threshold exceeded]\ [, resource not accessible][, latent error] <section type string> := generic processor error | memory error | \ PCIe error | unknown, <uuid string> <section data> := <generic processor section data> | <memory section data> | \ <pcie section data> | <null> <generic processor section data> := [processor_type: <integer>, <proc type string>] [processor_isa: <integer>, <proc isa string>] [error_type: <integer> <proc error type strings>] [operation: <integer>, <proc operation string>] [flags: <integer> <proc flags strings>] [level: <integer>] [version_info: <integer>] [processor_id: <integer>] [target_address: <integer>] [requestor_id: <integer>] [responder_id: <integer>] [IP: <integer>] <proc type string>* := IA32/X64 | IA64 <proc isa string>* := IA32 | IA64 | X64 <processor error type strings># := [cache error][, TLB error][, bus error][, micro-architectural error] <proc operation string>* := unknown or generic | data read | data write | \ instruction execution <proc flags strings># := [restartable][, precise IP][, overflow][, corrected] <memory section data> := [error_status: <integer>] [physical_address: <integer>] [physical_address_mask: <integer>] [node: <integer>] [card: <integer>] [module: <integer>] [bank: <integer>] [device: <integer>] [row: <integer>] [column: <integer>] [bit_position: <integer>] [requestor_id: <integer>] [responder_id: <integer>] [target_id: <integer>] [error_type: <integer>, <mem error type string>] <mem error type string>* := unknown | no error | single-bit ECC | multi-bit ECC | \ single-symbol chipkill ECC | multi-symbol chipkill ECC | master abort | \ target abort | parity error | watchdog timeout | invalid address | \ mirror Broken | memory sparing | scrub corrected error | \ scrub uncorrected error <pcie section data> := [port_type: <integer>, <pcie port type string>] [version: <integer>.<integer>] [command: <integer>, status: <integer>] [device_id: <integer>:<integer>:<integer>.<integer> slot: <integer> secondary_bus: <integer> vendor_id: <integer>, device_id: <integer> class_code: <integer>] [serial number: <integer>, <integer>] [bridge: secondary_status: <integer>, control: <integer>] <pcie port type string>* := PCIe end point | legacy PCI end point | \ unknown | unknown | root port | upstream switch port | \ downstream switch port | PCIe to PCI/PCI-X bridge | \ PCI/PCI-X to PCIe bridge | root complex integrated endpoint device | \ root complex event collector Where, [] designate corresponding content is optional All <field string> description with * has the following format: field: <integer>, <field string> Where value of <integer> should be the position of "string" in <field string> description. Otherwise, <field string> will be "unknown". All <field strings> description with # has the following format: field: <integer> <field strings> Where each string in <fields strings> corresponding to one set bit of <integer>. The bit position is the position of "string" in <field strings> description. For more detailed explanation of every field, please refer to UEFI specification version 2.3 or later, section Appendix N: Common Platform Error Record.
arch/x86/kernel/acpi/boot.c +1 −0 Original line number Diff line number Diff line Loading @@ -504,6 +504,7 @@ int acpi_gsi_to_irq(u32 gsi, unsigned int *irq) return 0; } EXPORT_SYMBOL_GPL(acpi_gsi_to_irq); int acpi_isa_irq_to_gsi(unsigned isa_irq, u32 *gsi) { Loading
arch/x86/kernel/dumpstack.c +1 −0 Original line number Diff line number Diff line Loading @@ -240,6 +240,7 @@ unsigned __kprobes long oops_begin(void) bust_spinlocks(1); return flags; } EXPORT_SYMBOL_GPL(oops_begin); void __kprobes oops_end(unsigned long flags, struct pt_regs *regs, int signr) { Loading
drivers/acpi/apei/apei-internal.h +2 −0 Original line number Diff line number Diff line Loading @@ -109,6 +109,8 @@ static inline u32 apei_estatus_len(struct acpi_hest_generic_status *estatus) return sizeof(*estatus) + estatus->data_length; } void apei_estatus_print(const char *pfx, const struct acpi_hest_generic_status *estatus); int apei_estatus_check_header(const struct acpi_hest_generic_status *estatus); int apei_estatus_check(const struct acpi_hest_generic_status *estatus); #endif
drivers/acpi/apei/cper.c +311 −0 Original line number Diff line number Diff line Loading @@ -46,6 +46,317 @@ u64 cper_next_record_id(void) } EXPORT_SYMBOL_GPL(cper_next_record_id); static const char *cper_severity_strs[] = { "recoverable", "fatal", "corrected", "info", }; static const char *cper_severity_str(unsigned int severity) { return severity < ARRAY_SIZE(cper_severity_strs) ? cper_severity_strs[severity] : "unknown"; } /* * cper_print_bits - print strings for set bits * @pfx: prefix for each line, including log level and prefix string * @bits: bit mask * @strs: string array, indexed by bit position * @strs_size: size of the string array: @strs * * For each set bit in @bits, print the corresponding string in @strs. * If the output length is longer than 80, multiple line will be * printed, with @pfx is printed at the beginning of each line. */ static void cper_print_bits(const char *pfx, unsigned int bits, const char *strs[], unsigned int strs_size) { int i, len = 0; const char *str; char buf[84]; for (i = 0; i < strs_size; i++) { if (!(bits & (1U << i))) continue; str = strs[i]; if (len && len + strlen(str) + 2 > 80) { printk("%s\n", buf); len = 0; } if (!len) len = snprintf(buf, sizeof(buf), "%s%s", pfx, str); else len += snprintf(buf+len, sizeof(buf)-len, ", %s", str); } if (len) printk("%s\n", buf); } static const char *cper_proc_type_strs[] = { "IA32/X64", "IA64", }; static const char *cper_proc_isa_strs[] = { "IA32", "IA64", "X64", }; static const char *cper_proc_error_type_strs[] = { "cache error", "TLB error", "bus error", "micro-architectural error", }; static const char *cper_proc_op_strs[] = { "unknown or generic", "data read", "data write", "instruction execution", }; static const char *cper_proc_flag_strs[] = { "restartable", "precise IP", "overflow", "corrected", }; static void cper_print_proc_generic(const char *pfx, const struct cper_sec_proc_generic *proc) { if (proc->validation_bits & CPER_PROC_VALID_TYPE) printk("%s""processor_type: %d, %s\n", pfx, proc->proc_type, proc->proc_type < ARRAY_SIZE(cper_proc_type_strs) ? cper_proc_type_strs[proc->proc_type] : "unknown"); if (proc->validation_bits & CPER_PROC_VALID_ISA) printk("%s""processor_isa: %d, %s\n", pfx, proc->proc_isa, proc->proc_isa < ARRAY_SIZE(cper_proc_isa_strs) ? cper_proc_isa_strs[proc->proc_isa] : "unknown"); if (proc->validation_bits & CPER_PROC_VALID_ERROR_TYPE) { printk("%s""error_type: 0x%02x\n", pfx, proc->proc_error_type); cper_print_bits(pfx, proc->proc_error_type, cper_proc_error_type_strs, ARRAY_SIZE(cper_proc_error_type_strs)); } if (proc->validation_bits & CPER_PROC_VALID_OPERATION) printk("%s""operation: %d, %s\n", pfx, proc->operation, proc->operation < ARRAY_SIZE(cper_proc_op_strs) ? cper_proc_op_strs[proc->operation] : "unknown"); if (proc->validation_bits & CPER_PROC_VALID_FLAGS) { printk("%s""flags: 0x%02x\n", pfx, proc->flags); cper_print_bits(pfx, proc->flags, cper_proc_flag_strs, ARRAY_SIZE(cper_proc_flag_strs)); } if (proc->validation_bits & CPER_PROC_VALID_LEVEL) printk("%s""level: %d\n", pfx, proc->level); if (proc->validation_bits & CPER_PROC_VALID_VERSION) printk("%s""version_info: 0x%016llx\n", pfx, proc->cpu_version); if (proc->validation_bits & CPER_PROC_VALID_ID) printk("%s""processor_id: 0x%016llx\n", pfx, proc->proc_id); if (proc->validation_bits & CPER_PROC_VALID_TARGET_ADDRESS) printk("%s""target_address: 0x%016llx\n", pfx, proc->target_addr); if (proc->validation_bits & CPER_PROC_VALID_REQUESTOR_ID) printk("%s""requestor_id: 0x%016llx\n", pfx, proc->requestor_id); if (proc->validation_bits & CPER_PROC_VALID_RESPONDER_ID) printk("%s""responder_id: 0x%016llx\n", pfx, proc->responder_id); if (proc->validation_bits & CPER_PROC_VALID_IP) printk("%s""IP: 0x%016llx\n", pfx, proc->ip); } static const char *cper_mem_err_type_strs[] = { "unknown", "no error", "single-bit ECC", "multi-bit ECC", "single-symbol chipkill ECC", "multi-symbol chipkill ECC", "master abort", "target abort", "parity error", "watchdog timeout", "invalid address", "mirror Broken", "memory sparing", "scrub corrected error", "scrub uncorrected error", }; static void cper_print_mem(const char *pfx, const struct cper_sec_mem_err *mem) { if (mem->validation_bits & CPER_MEM_VALID_ERROR_STATUS) printk("%s""error_status: 0x%016llx\n", pfx, mem->error_status); if (mem->validation_bits & CPER_MEM_VALID_PHYSICAL_ADDRESS) printk("%s""physical_address: 0x%016llx\n", pfx, mem->physical_addr); if (mem->validation_bits & CPER_MEM_VALID_PHYSICAL_ADDRESS_MASK) printk("%s""physical_address_mask: 0x%016llx\n", pfx, mem->physical_addr_mask); if (mem->validation_bits & CPER_MEM_VALID_NODE) printk("%s""node: %d\n", pfx, mem->node); if (mem->validation_bits & CPER_MEM_VALID_CARD) printk("%s""card: %d\n", pfx, mem->card); if (mem->validation_bits & CPER_MEM_VALID_MODULE) printk("%s""module: %d\n", pfx, mem->module); if (mem->validation_bits & CPER_MEM_VALID_BANK) printk("%s""bank: %d\n", pfx, mem->bank); if (mem->validation_bits & CPER_MEM_VALID_DEVICE) printk("%s""device: %d\n", pfx, mem->device); if (mem->validation_bits & CPER_MEM_VALID_ROW) printk("%s""row: %d\n", pfx, mem->row); if (mem->validation_bits & CPER_MEM_VALID_COLUMN) printk("%s""column: %d\n", pfx, mem->column); if (mem->validation_bits & CPER_MEM_VALID_BIT_POSITION) printk("%s""bit_position: %d\n", pfx, mem->bit_pos); if (mem->validation_bits & CPER_MEM_VALID_REQUESTOR_ID) printk("%s""requestor_id: 0x%016llx\n", pfx, mem->requestor_id); if (mem->validation_bits & CPER_MEM_VALID_RESPONDER_ID) printk("%s""responder_id: 0x%016llx\n", pfx, mem->responder_id); if (mem->validation_bits & CPER_MEM_VALID_TARGET_ID) printk("%s""target_id: 0x%016llx\n", pfx, mem->target_id); if (mem->validation_bits & CPER_MEM_VALID_ERROR_TYPE) { u8 etype = mem->error_type; printk("%s""error_type: %d, %s\n", pfx, etype, etype < ARRAY_SIZE(cper_mem_err_type_strs) ? cper_mem_err_type_strs[etype] : "unknown"); } } static const char *cper_pcie_port_type_strs[] = { "PCIe end point", "legacy PCI end point", "unknown", "unknown", "root port", "upstream switch port", "downstream switch port", "PCIe to PCI/PCI-X bridge", "PCI/PCI-X to PCIe bridge", "root complex integrated endpoint device", "root complex event collector", }; static void cper_print_pcie(const char *pfx, const struct cper_sec_pcie *pcie) { if (pcie->validation_bits & CPER_PCIE_VALID_PORT_TYPE) printk("%s""port_type: %d, %s\n", pfx, pcie->port_type, pcie->port_type < ARRAY_SIZE(cper_pcie_port_type_strs) ? cper_pcie_port_type_strs[pcie->port_type] : "unknown"); if (pcie->validation_bits & CPER_PCIE_VALID_VERSION) printk("%s""version: %d.%d\n", pfx, pcie->version.major, pcie->version.minor); if (pcie->validation_bits & CPER_PCIE_VALID_COMMAND_STATUS) printk("%s""command: 0x%04x, status: 0x%04x\n", pfx, pcie->command, pcie->status); if (pcie->validation_bits & CPER_PCIE_VALID_DEVICE_ID) { const __u8 *p; printk("%s""device_id: %04x:%02x:%02x.%x\n", pfx, pcie->device_id.segment, pcie->device_id.bus, pcie->device_id.device, pcie->device_id.function); printk("%s""slot: %d\n", pfx, pcie->device_id.slot >> CPER_PCIE_SLOT_SHIFT); printk("%s""secondary_bus: 0x%02x\n", pfx, pcie->device_id.secondary_bus); printk("%s""vendor_id: 0x%04x, device_id: 0x%04x\n", pfx, pcie->device_id.vendor_id, pcie->device_id.device_id); p = pcie->device_id.class_code; printk("%s""class_code: %02x%02x%02x\n", pfx, p[0], p[1], p[2]); } if (pcie->validation_bits & CPER_PCIE_VALID_SERIAL_NUMBER) printk("%s""serial number: 0x%04x, 0x%04x\n", pfx, pcie->serial_number.lower, pcie->serial_number.upper); if (pcie->validation_bits & CPER_PCIE_VALID_BRIDGE_CONTROL_STATUS) printk( "%s""bridge: secondary_status: 0x%04x, control: 0x%04x\n", pfx, pcie->bridge.secondary_status, pcie->bridge.control); } static const char *apei_estatus_section_flag_strs[] = { "primary", "containment warning", "reset", "threshold exceeded", "resource not accessible", "latent error", }; static void apei_estatus_print_section( const char *pfx, const struct acpi_hest_generic_data *gdata, int sec_no) { uuid_le *sec_type = (uuid_le *)gdata->section_type; __u16 severity; severity = gdata->error_severity; printk("%s""section: %d, severity: %d, %s\n", pfx, sec_no, severity, cper_severity_str(severity)); printk("%s""flags: 0x%02x\n", pfx, gdata->flags); cper_print_bits(pfx, gdata->flags, apei_estatus_section_flag_strs, ARRAY_SIZE(apei_estatus_section_flag_strs)); if (gdata->validation_bits & CPER_SEC_VALID_FRU_ID) printk("%s""fru_id: %pUl\n", pfx, (uuid_le *)gdata->fru_id); if (gdata->validation_bits & CPER_SEC_VALID_FRU_TEXT) printk("%s""fru_text: %.20s\n", pfx, gdata->fru_text); if (!uuid_le_cmp(*sec_type, CPER_SEC_PROC_GENERIC)) { struct cper_sec_proc_generic *proc_err = (void *)(gdata + 1); printk("%s""section_type: general processor error\n", pfx); if (gdata->error_data_length >= sizeof(*proc_err)) cper_print_proc_generic(pfx, proc_err); else goto err_section_too_small; } else if (!uuid_le_cmp(*sec_type, CPER_SEC_PLATFORM_MEM)) { struct cper_sec_mem_err *mem_err = (void *)(gdata + 1); printk("%s""section_type: memory error\n", pfx); if (gdata->error_data_length >= sizeof(*mem_err)) cper_print_mem(pfx, mem_err); else goto err_section_too_small; } else if (!uuid_le_cmp(*sec_type, CPER_SEC_PCIE)) { struct cper_sec_pcie *pcie = (void *)(gdata + 1); printk("%s""section_type: PCIe error\n", pfx); if (gdata->error_data_length >= sizeof(*pcie)) cper_print_pcie(pfx, pcie); else goto err_section_too_small; } else printk("%s""section type: unknown, %pUl\n", pfx, sec_type); return; err_section_too_small: pr_err(FW_WARN "error section length is too small\n"); } void apei_estatus_print(const char *pfx, const struct acpi_hest_generic_status *estatus) { struct acpi_hest_generic_data *gdata; unsigned int data_len, gedata_len; int sec_no = 0; __u16 severity; printk("%s""APEI generic hardware error status\n", pfx); severity = estatus->error_severity; printk("%s""severity: %d, %s\n", pfx, severity, cper_severity_str(severity)); data_len = estatus->data_length; gdata = (struct acpi_hest_generic_data *)(estatus + 1); while (data_len > sizeof(*gdata)) { gedata_len = gdata->error_data_length; apei_estatus_print_section(pfx, gdata, sec_no); data_len -= gedata_len + sizeof(*gdata); sec_no++; } } EXPORT_SYMBOL_GPL(apei_estatus_print); int apei_estatus_check_header(const struct acpi_hest_generic_status *estatus) { if (estatus->data_length && Loading
