/* IBM_PROLOG_BEGIN_TAG */ /* This is an automatically generated prolog. */ /* */ /* $Source: src/usr/ipmi/ipmifruinv.C $ */ /* */ /* OpenPOWER HostBoot Project */ /* */ /* Contributors Listed Below - COPYRIGHT 2014,2017 */ /* [+] International Business Machines Corp. */ /* */ /* */ /* Licensed under the Apache License, Version 2.0 (the "License"); */ /* you may not use this file except in compliance with the License. */ /* You may obtain a copy of the License at */ /* */ /* http://www.apache.org/licenses/LICENSE-2.0 */ /* */ /* Unless required by applicable law or agreed to in writing, software */ /* distributed under the License is distributed on an "AS IS" BASIS, */ /* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or */ /* implied. See the License for the specific language governing */ /* permissions and limitations under the License. */ /* */ /* IBM_PROLOG_END_TAG */ #include #include #include #include #include #include #include #include #include #include #include #include "ipmifru.H" #include "ipmifruinvprvt.H" #include #include #include #include extern trace_desc_t * g_trac_ipmi; /** * @brief Compairs two pairs - used for std:sort * @param[in] lhs - left pair for comparison * @param[in] rhs - right pair for comparison */ inline static bool comparePairs( const std::pair& i_lhs, const std::pair& i_rhs) { bool l_compare = i_lhs.second < i_rhs.second; // in case of a tie, if the left is a Node, sort it first. if (i_lhs.second == i_rhs.second) { if (TARGETING::TYPE_NODE==i_lhs.first->getAttr()) { l_compare = true; } } return l_compare; } IpmiFruInv::IpmiFruInv(TARGETING::TargetHandle_t i_target) :iv_target(i_target) { }; IpmiFruInv::~IpmiFruInv() {} IpmiFruInv *IpmiFruInv::Factory(TARGETING::TargetHandleList i_targets, bool i_updateData) { IpmiFruInv *l_fru = NULL; TARGETING::TargetHandle_t l_target; assert( ! i_targets.empty(), "IpmiFruInv::Factory: Input was empty List of Targets"); l_target = i_targets[0]; switch (l_target->getAttr()) { case TARGETING::TYPE_DIMM: l_fru = new isdimmIpmiFruInv(l_target); break; case TARGETING::TYPE_PROC: l_fru = new procIpmiFruInv(l_target, i_updateData); break; case TARGETING::TYPE_MEMBUF: // A memory riser card will have a mem buff with a distinct FRU ID l_fru = new membufIpmiFruInv(l_target, i_targets, i_updateData); break; case TARGETING::TYPE_NODE: // When the planar eeprom is shared for planar vpd and memory vpd, // the node and membufs will have the same FRU ID. The node has // been sorted ahead of the membufs. The membufs are extra targets // for their ECIDs. l_fru = new backplaneIpmiFruInv(l_target, i_targets, i_updateData); break; case TARGETING::TYPE_SYS: // Use sys target for setting System Firmware Info l_fru = new systemFwIpmiFruInv(l_target); break; default: assert(false, "IpmiFruInv::Factory: No support for target type given: [%08x]", l_target->getAttr()); break; } return l_fru; } void IpmiFruInv::sendFruData(uint8_t i_deviceId) { if (iv_record_data.size() > 0) { //Use IMPIFRU::writeData to send data to service processor // it will do any error handling and memory management IPMIFRU::writeData(i_deviceId, &iv_record_data[0], iv_record_data.size(), IPMIFRUINV::DEFAULT_FRU_OFFSET); } else { TRACFCOMP(g_trac_ipmi,"IpmiFruInv::sendFruData: " "Not sending data for deviceId[%08x], no data found for this record."); } return; } void IpmiFruInv::printRecordDebugData(const std::vector &i_data) { if (i_data.size() > 0) { TRACFBIN(g_trac_ipmi, "IpmiRecordData", &i_data[0], i_data.size()); } else { TRACFCOMP(g_trac_ipmi,"IpmiRecordData empty"); } } //This uses the template method design pattern // Since all IPMI Fru Inventory records all contain the same 5 sections // (whether they are populated or empty) this funciton will build all 5 // sections, build the header for the entire record, and then combine all 5 // records into one full record errlHndl_t IpmiFruInv::buildFruInvRecord(void) { errlHndl_t l_errl = NULL; std::vector l_iu_data; std::vector l_ci_data; std::vector l_bi_data; std::vector l_pi_data; std::vector l_mr_data; do { //First build up all 5 records individually l_errl = buildInternalUseArea(l_iu_data); if (l_errl) { break; } l_errl = buildChassisInfoArea(l_ci_data); if (l_errl) { break; } l_errl = buildBoardInfoArea(l_bi_data); if (l_errl) { break; } l_errl = buildProductInfoArea(l_pi_data); if (l_errl) { break; } l_errl = buildMultiRecordInfoArea(l_mr_data); if (l_errl) { break; } //Now build common header with data for this FRU Inv Record buildCommonHeader(l_iu_data, l_ci_data, l_bi_data, l_pi_data, l_mr_data); //Combine everything into one full IPMI Fru Inventory Record completeRecord(l_iu_data, l_ci_data, l_bi_data, l_pi_data, l_mr_data); } while(0); if (l_errl) { TRACFCOMP(g_trac_ipmi,"IpmiFruInv::buildFruInvRecord Error encountered" " building up Fru Inventory Record sections."); } return l_errl; } void IpmiFruInv::buildCommonHeader( const std::vector &i_internal_use_data, const std::vector &i_chassis_data, const std::vector &i_board_data, const std::vector &i_product_data, const std::vector &i_multirecord_data) { //Use this variable to increment size of header as we go along to determine // offset for the subsequent area offsets uint32_t l_cur_data_offset = 0; //First byte is id for version of FRU Info Storage Spec used addHeaderFormat(iv_record_data); //2nd byte is offset to internal use data buildCommonHeaderSection(iv_record_data, i_internal_use_data.size(), l_cur_data_offset); //3rd byte is offset to chassis data buildCommonHeaderSection(iv_record_data, i_chassis_data.size(), l_cur_data_offset); //4th byte is offset to board data buildCommonHeaderSection(iv_record_data, i_board_data.size(), l_cur_data_offset); //5th byte is offset to product data buildCommonHeaderSection(iv_record_data, i_product_data.size(), l_cur_data_offset); //6th byte is offset to multirecord data buildCommonHeaderSection(iv_record_data, i_multirecord_data.size(), l_cur_data_offset); //7th byte is PAD padData(iv_record_data); //8th (Final byte of Header Format) is the checksum addDataChecksum(iv_record_data); } void IpmiFruInv::completeRecord(const std::vector &i_internal_use_data, const std::vector &i_chassis_data, const std::vector &i_board_data, const std::vector &i_product_data, const std::vector &i_multirecord_data) { addDataToRecord(i_internal_use_data); addDataToRecord(i_chassis_data); addDataToRecord(i_board_data); addDataToRecord(i_product_data); addDataToRecord(i_multirecord_data); } //Helper function to simply combine vectors together void IpmiFruInv::addDataToRecord(const std::vector &i_data) { iv_record_data.insert(iv_record_data.end(), i_data.begin(), i_data.end()); } //Helper function to create an 'empty' record errlHndl_t IpmiFruInv::buildEmptyArea(std::vector &i_data) { return NULL; } //Helper function to pad a data record. Most of the IPMI Fru Invenotry // Record format works with each section being a multiple of 8 bytes // so padding is needed to make records properly formatted void IpmiFruInv::padData(std::vector &io_data) { uint8_t l_pad_remainder = (io_data.size() + IPMIFRUINV::CHECKSUM_SIZE) % IPMIFRUINV::RECORD_UNIT_OF_MEASUREMENT; if (l_pad_remainder) { io_data.insert(io_data.end(), IPMIFRUINV::RECORD_UNIT_OF_MEASUREMENT - l_pad_remainder, uint8_t(0)); } return; } //Creates a 2's complement checksum at the end of the given data vector void IpmiFruInv::addDataChecksum(std::vector &io_data) { uint8_t l_checksum_val = 0; std::vector::iterator l_iter; for (l_iter = io_data.begin(); l_iter != io_data.end(); ++l_iter) { l_checksum_val += *l_iter; } // Push the Zero checksum as the last byte of this data // This appears to be a simple summation of all the bytes io_data.push_back(-l_checksum_val); return; } //The Common Header points to the offset for each of the 5 data record // sections, this function is used in helping to build that up. void IpmiFruInv::buildCommonHeaderSection(std::vector &io_out_data, uint32_t i_section_data_size, uint32_t &io_cur_data_offset) { //Check if data for internal use section populated if (i_section_data_size == 0) { //Indicate record not prsent io_out_data.push_back(IPMIFRUINV::RECORD_NOT_PRESENT); } else { //Place data to define offset to internal_use_data section io_out_data.push_back((io_cur_data_offset + IPMIFRUINV::COMMON_HEADER_FORMAT_SIZE) / IPMIFRUINV::RECORD_UNIT_OF_MEASUREMENT); io_cur_data_offset += i_section_data_size; } return; } //Helper function to add the IPMI Fru Inventory Format to the // beginning of the data vector passed in void IpmiFruInv::addHeaderFormat(std::vector &io_data) { //Add id for version of FRU Info Storage Spec used io_data.push_back(IPMIFRUINV::SPEC_VERSION); return; } //Helper function to complete the formatting for a given section // that can be completed prior to adding section data // It will add the spec version, create a placeholder for the data // size and set the language code if desired void IpmiFruInv::preFormatProcessing(std::vector &io_data, bool i_setLanguageCode) { //Add id for version of FRU Info Storage Spec used addHeaderFormat(io_data); //Add Data Size - 0 as a placeholder, can edit after the data is finalized io_data.push_back(uint8_t(0)); if (i_setLanguageCode) { //Add Language Code io_data.push_back(uint8_t(IPMIFRUINV::ENGLISH_LANGUAGE_CODE)); } } //Helper function to complete the formatting for a given section // It will calculate overall section size, // pad the section if needed, and add the data checksum void IpmiFruInv::postFormatProcessing(std::vector &io_data) { //This area needs to be padded to a multiple of 8 bytes (after checksum) padData(io_data); //Set size of data info area setAreaSize(io_data, 1); //Finally add board info checksum addDataChecksum(io_data); return; } //Helper function containing the logic to set the proper size of a data section void IpmiFruInv::setAreaSize(std::vector &io_data, uint8_t i_offset) { io_data.at(i_offset) = (io_data.size() + IPMIFRUINV::CHECKSUM_SIZE) / IPMIFRUINV::RECORD_UNIT_OF_MEASUREMENT; return; } // Function to compute the correct data for the Mfg date/time section. // IPMI expects the time to be in seconds from 01/01/1996. errlHndl_t IpmiFruInv::formatMfgData(std::vector i_mfgDateData, uint32_t& o_mfgDate) { errlHndl_t l_errl = NULL; // MB keyword size is 8 hex bytes, throw an error if it is smaller so we // don't do an invalid access. if (i_mfgDateData.size() != 8) { /*@ * @errortype * @moduleid IPMI::MOD_IPMIFRU_INV * @reasoncode IPMI::RC_INVALID_VPD_DATA * @userdata1 Size of vpd data * * @devdesc VPD data is invalid size */ l_errl = new ERRORLOG::ErrlEntry(ERRORLOG::ERRL_SEV_INFORMATIONAL, IPMI::MOD_IPMIFRU_INV, IPMI::RC_INVALID_VPD_DATA, i_mfgDateData.size()); TARGETING::Target* nodeTarget = NULL; TARGETING::PredicateCTM nodeFilter(TARGETING::CLASS_ENC, TARGETING::TYPE_NODE); TARGETING::TargetRangeFilter nodeItr( TARGETING::targetService().begin(), TARGETING::targetService().end(), &nodeFilter); nodeTarget = *nodeItr; // Callout out node since that is where the VPD lives l_errl->addHwCallout(nodeTarget, HWAS::SRCI_PRIORITY_HIGH, HWAS::NO_DECONFIG, HWAS::GARD_NULL ); } else { // Convert Centuries / Years / months / day / hour / minute / second // into a uint64 representing number of minute since 1/1/96 // The vpd data is expected to be in this format VVCCYYmmDDHHMMSS uint8_t century = i_mfgDateData.at(1); uint8_t year = i_mfgDateData.at(2); uint8_t month = i_mfgDateData.at(3); uint8_t day = i_mfgDateData.at(4); uint8_t hour = i_mfgDateData.at(5); uint8_t minute = i_mfgDateData.at(6); // Subtract year uint8_t numOfYears = (century*100 + year) - 1996; // Subtract month uint8_t numOfMonths = month - 1; // Subtract day uint16_t numOfDays = day - 1; // Add the specific number of days for the months given for (uint8_t i=0; i < numOfMonths; i++) { numOfDays += daysInMonth[i]; } // Add the number of days for the number of year given numOfDays += (numOfYears*365); // Add a day for every leap year // Check if we need to consider the current year if (month <= 2) { // We don't need to consider this year for a leap year, as it // wouldn't have happened yet. Decrement a year. year = year - 1; } uint8_t numLeapYears = 0; // For every year from 1996 until the build date year, check if it's a // leap year for(uint16_t i = 1996; i <= (century*100 + year); i++) { // If the year is divisible by 4, its a leap year. Don't have to // worry about centuries since the only possible century is 2000 // and it was a leap year. if(i % 4 == 0) { numLeapYears++; } } numOfDays += numLeapYears; // Convert into minutes o_mfgDate = (((numOfDays*24)*60) + (hour*60) + minute); } return l_errl; } // Function to set the data for the Mfg date/time section. void IpmiFruInv::setMfgData(std::vector &io_data, std::vector &mfgDateData) { errlHndl_t l_errl = NULL; uint32_t mfgDate = 0; // Pass mfgDateData vector to format function to get the minute integer l_errl = formatMfgData(mfgDateData, mfgDate); if (l_errl) { // MFG date isn't entierly necessary. Let's just delete and // continue. TRACFCOMP(g_trac_ipmi,"backplaneIpmiFruInv::buildBoardInfoArea - " "Error from formatMfgData. Using default MFG Date/Time."); io_data.push_back(0); io_data.push_back(0); io_data.push_back(0); delete l_errl; } else { if(((mfgDate & 0xFF000000) >> 24) != 0) { // If there is data in these bits, we have exceeded the // maximum time we can display (IPMI only takes in 3 bytes // of hex, FFFFFF) TRACFCOMP(g_trac_ipmi,"backplaneIpmiFruInv::buildBoardInfoArea " "- Exeeded maximum allowed build date to display. Using " "default MFG Date/Time."); io_data.push_back(0); io_data.push_back(0); io_data.push_back(0); } else { // Convert mfgDate to hex uint8_t l_leastSig = (mfgDate & 0x000000FF); uint8_t l_middleSig = (mfgDate & 0x0000FF00) >> 8; uint8_t l_mostSig = (mfgDate & 0x00FF0000) >> 16; // Push data into io_data - least significant byte first io_data.push_back(l_leastSig); io_data.push_back(l_middleSig); io_data.push_back(l_mostSig); } } } //############################################################################## isdimmIpmiFruInv::isdimmIpmiFruInv( TARGETING::TargetHandle_t i_target ) :IpmiFruInv(i_target) { }; errlHndl_t isdimmIpmiFruInv::buildInternalUseArea(std::vector &io_data) { //This section not needed for isdimm type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t isdimmIpmiFruInv::buildChassisInfoArea(std::vector &io_data) { //This section not needed for isdimm type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t isdimmIpmiFruInv::buildBoardInfoArea(std::vector &io_data) { //This section not needed for isdimm type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t isdimmIpmiFruInv::buildMultiRecordInfoArea( std::vector &io_data) { //This section not needed for isdimm type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t isdimmIpmiFruInv::buildProductInfoArea(std::vector &io_data) { errlHndl_t l_errl = NULL; do { //Set formatting data that goes at the beginning of the record preFormatProcessing(io_data, true); //Set Manufacturer's Name - Use JEDEC standard MFG ID l_errl = addVpdData(io_data, SPD::MODULE_MANUFACTURER_ID); if (l_errl) { break; } //Set Product Name - Use Basic SPD Memory Type l_errl = addVpdData(io_data, SPD::BASIC_MEMORY_TYPE); if (l_errl) { break; } //Set Product Part/Model Number l_errl = addVpdData(io_data, SPD::MODULE_PART_NUMBER, true); if (l_errl) { break; } //Set Product Version l_errl = addVpdData(io_data, SPD::MODULE_REVISION_CODE); if (l_errl) { break; } //Set Product Serial Number l_errl = addVpdData(io_data, SPD::MODULE_SERIAL_NUMBER); if (l_errl) { break; } //Add Asset Tag io_data.push_back(uint8_t(0)); //No Asset Tag needed - O bytes //FRU File ID - Empty io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); io_data.push_back(uint8_t(0)); // Empty FRU File ID bytes io_data.push_back(IPMIFRUINV::END_OF_CUSTOM_FIELDS); } while (0); //Finalize section formatting postFormatProcessing(io_data); if (l_errl) { TRACFCOMP(g_trac_ipmi,"isdimIpmiFruInv::buildProductInfoArea - Errors " "collecting product info data from VPD"); } return l_errl; } errlHndl_t isdimmIpmiFruInv::addVpdData(std::vector &io_data, uint8_t i_keyword, bool i_ascii) { size_t l_vpdSize = 0; errlHndl_t l_errl = NULL; do { //First get size with NULL call: l_errl = deviceRead(iv_target, NULL, l_vpdSize, DEVICE_SPD_ADDRESS(i_keyword)); if (l_errl) { TRACFCOMP(g_trac_ipmi,"isdimmIpmiFruInv::addVpdData - " "Error while reading SPD keyword size for keyword 0x%x", i_keyword); break; } //Assert if vpd field is too large to fit in IPMI fru inventory format assert(l_vpdSize < IPMIFRUINV::TYPELENGTH_BYTE_ASCII); if (l_vpdSize > 0) { //Determine how big data is and expand it to handle the soon to //be read VPD data uint8_t l_offset = io_data.size(); io_data.resize(l_offset + 1 + l_vpdSize); //Add on the data to the type/length byte indicating it is ascii // otherwise leave it as binary if (i_ascii) { io_data.at(l_offset) = l_vpdSize + IPMIFRUINV::TYPELENGTH_BYTE_ASCII; } else { io_data.at(l_offset) = l_vpdSize; } l_offset += 1; //Read the VPD data directly into fru inventory data buffer l_errl = deviceRead(iv_target,&io_data[l_offset], l_vpdSize, DEVICE_SPD_ADDRESS(i_keyword)); } else { TRACFCOMP(g_trac_ipmi,"isdimmIpmiFruInv::addVpdData - " " No size returned for SPD keyword"); } } while(0); if (l_errl) { TRACFCOMP(g_trac_ipmi, "addVpdData - Error acquiring data from Vpd."); } return l_errl; } //############################################################################## procIpmiFruInv::procIpmiFruInv( TARGETING::TargetHandle_t i_target, bool i_isUpdate ) :IpmiFruInv(i_target), iv_isUpdate(i_isUpdate) { }; errlHndl_t procIpmiFruInv::buildInternalUseArea(std::vector &io_data) { //This section not needed for proc type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t procIpmiFruInv::buildChassisInfoArea(std::vector &io_data) { //This section not needed for proc type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t procIpmiFruInv::buildBoardInfoArea(std::vector &io_data) { errlHndl_t l_errl = NULL; do { //Set formatting data that goes at the beginning of the record preFormatProcessing(io_data, true); //MFG Date/Time - Blank io_data.push_back(0); io_data.push_back(0); io_data.push_back(0); //Board Manufacturer - IBM //Board MFG - Type/Length Byte // - Indicate 8-bit Ascii + Latin 1 (0xC0) // - and a size of 3 for "IBM" - 0x3 // - add together and the value for this byte is 0xC3 io_data.push_back(0xC3); // - Now put in 'IBM' io_data.push_back('I'); io_data.push_back('B'); io_data.push_back('M'); //Set Board Info description l_errl = addVpdData(io_data, MVPD::VINI, MVPD::DR, true); if (l_errl) { break; } //Set Board Info serial number l_errl = addVpdData(io_data, MVPD::VRML, MVPD::SN, true); if (l_errl) { break; } //Set Board part number l_errl = addVpdData(io_data, MVPD::VRML, MVPD::PN, true); if (l_errl) { break; } //Set Board FRU File ID l_errl = addVpdData(io_data, MVPD::VINI, MVPD::VZ); if (l_errl) { break; } //Push Fru File ID Byte - NULL io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); //Get EC Data TARGETING::ATTR_EC_type ecInfo; bool getEC = iv_target->tryGetAttr(ecInfo); //Get ECID Data TARGETING::ATTR_ECID_type ecidInfo; bool getEcid = iv_target->tryGetAttr(ecidInfo); //Only add ECID Data if in an update scenario if (getEcid && iv_isUpdate == true) { addEcidData(iv_target, ecidInfo, io_data); } //Add in the EC Data whether we're in an update scenario or not. //We have the EC info after discover_targets() if (getEC) { addECData(iv_target, ecInfo, io_data); } if(!getEC && !(getEcid && iv_isUpdate)) { //Indicate no custom fields if ecid and ec data not found io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); } if (iv_isUpdate == true) { std::vector l_procList; l_procList.push_back(iv_target); customData(l_procList, io_data); } //Indicate end of custom fields io_data.push_back(IPMIFRUINV::END_OF_CUSTOM_FIELDS); } while (0); //Complete formatting for this data record postFormatProcessing(io_data); if (l_errl) { TRACFCOMP(g_trac_ipmi,"buildBoardInfoArea - Errors Collecting ISDimm " "FRU Inventory Board Info Data"); } return l_errl; } errlHndl_t procIpmiFruInv::buildProductInfoArea(std::vector &io_data) { //This section not needed for proc type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t procIpmiFruInv::buildMultiRecordInfoArea( std::vector &io_data) { //This section not needed for proc type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t procIpmiFruInv::addVpdData(std::vector &io_data, uint8_t i_record, uint8_t i_keyword, bool i_ascii, bool i_typeLengthByte) { errlHndl_t l_errl = NULL; l_errl = addCommonVpdData(iv_target, io_data, DeviceFW::MVPD, i_record, i_keyword, i_ascii, i_typeLengthByte); return l_errl; } //############################################################################## backplaneIpmiFruInv::backplaneIpmiFruInv( TARGETING::TargetHandle_t i_target, TARGETING::TargetHandleList i_extraTargets, bool i_isUpdate) :IpmiFruInv(i_target), iv_isUpdate(i_isUpdate), iv_extraTargets(i_extraTargets) { }; errlHndl_t backplaneIpmiFruInv::buildInternalUseArea( std::vector &io_data) { //This section not needed for the backplane type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t backplaneIpmiFruInv::buildChassisInfoArea( std::vector &io_data) { errlHndl_t l_errl = NULL; do { //Set formatting data that goes at the beginning of the record preFormatProcessing(io_data, false); //Set Chassis Enclosure Type - Not Ascii // Also, do not include type/length byte l_errl = addVpdData(io_data, PVPD::OSYS, PVPD::ET, false, false); //Support Legacy VPD without OSYS record if (l_errl) { TRACFCOMP(g_trac_ipmi,"backplaneIpmiFruInv::buildChassisInfoArea - " " Using Legacy Chassis VPD Data"); //Delete errorlog and use Default data and Legacy VPD Fields delete l_errl; l_errl = NULL; //Set default chassis type io_data.push_back(IPMIFRUINV::DEFAULT_CHASSIS_TYPE); //Set chassis part number - ascii formatted field l_errl = addVpdData(io_data, PVPD::OPFR, PVPD::VP, true); if (l_errl) { break; } //Set chassis serial number - ascii formatted field l_errl = addVpdData(io_data, PVPD::OPFR, PVPD::VS, true); if (l_errl) { break; } } else { TRACFCOMP(g_trac_ipmi,"backplaneIpmiFruInv::buildChassisInfoArea - " " Using NEW OSYS RECORD FOR Chassis VPD Data"); //Set chassis part number - ascii formatted field l_errl = addVpdData(io_data, PVPD::OSYS, PVPD::MM, true); if (l_errl) { break; } //Set chassis serial number - ascii formatted field l_errl = addVpdData(io_data, PVPD::OSYS, PVPD::SS, true); if (l_errl) { break; } } //Indicate no custom fields io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); io_data.push_back(IPMIFRUINV::END_OF_CUSTOM_FIELDS); } while (0); //Complete record data formatting postFormatProcessing(io_data); if (l_errl) { TRACFCOMP(g_trac_ipmi,"backplaneIpmiFruInv::buildChassisInfoArea - " "Errors collecting chassis info data"); } return l_errl; } errlHndl_t backplaneIpmiFruInv::buildBoardInfoArea( std::vector &io_data) { errlHndl_t l_errl = NULL; do { //Set formatting data that goes at the beginning of the record preFormatProcessing(io_data, true); // Set Mfg Build date // Grab VPD data into seperate data vector std::vector mfgDateData; l_errl = addVpdData(mfgDateData, PVPD::OPFR, PVPD::MB, false, false); if (l_errl) { break; } // Pass that to the function that sets the Build date setMfgData(io_data, mfgDateData); //Set Vendor Name - ascii formatted data l_errl = addVpdData(io_data, PVPD::OPFR, PVPD::VN, true); if (l_errl) { break; } //Set Product Name - ascii formatted data l_errl = addVpdData(io_data, PVPD::OPFR, PVPD::DR, true); if (l_errl) { break; } //Set Product Serial number - ascii formatted data TARGETING::ATTR_SERIAL_NUMBER_type l_sn = {'0'}; if( !( iv_target-> tryGetAttr ( l_sn) ) ) { // Should not fail. Need to use tryGetAttr due to complex type. // Use zeros if fails. TRACFCOMP(g_trac_ipmi,"backplaneIpmiFruInv::buildBoardInfoArea - " "Error getting serial number attribute"); } // The attribute size is 18. The vpd is 16. Only use 16. addCommonAttrData(io_data, (uint8_t *)&l_sn, VPD_SN_PN_VPD_SIZE); //Set Product Part number - ascii formatted data TARGETING::ATTR_PART_NUMBER_type l_pn = {'0'}; if( !( iv_target-> tryGetAttr ( l_pn) ) ) { // Should not fail. Need to use tryGetAttr due to complex type. // Use zeros if fails. TRACFCOMP(g_trac_ipmi,"backplaneIpmiFruInv::buildBoardInfoArea - " "Error getting part number attribute"); } // The attribute size is 18. The vpd is 16. Only use 16. addCommonAttrData(io_data, (uint8_t *)&l_pn, VPD_SN_PN_VPD_SIZE); //Push Fru File ID Byte - NULL io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); //Indicate End of Custom Fields io_data.push_back(IPMIFRUINV::END_OF_CUSTOM_FIELDS); } while (0); //Complete record data formatting postFormatProcessing(io_data); if (l_errl) { TRACFCOMP(g_trac_ipmi,"backplaneIpmiFruInv::buildBoardInfoArea - " "Errors collecting board info data"); } return l_errl; } errlHndl_t backplaneIpmiFruInv::buildProductInfoArea( std::vector &io_data) { //This section not needed for the backplane type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t backplaneIpmiFruInv::buildMultiRecordInfoArea( std::vector &io_data) { //This section not needed for the backplane type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t backplaneIpmiFruInv::addVpdData(std::vector &io_data, uint8_t i_record, uint8_t i_keyword, bool i_ascii, bool i_typeLengthByte) { errlHndl_t l_errl = NULL; l_errl = addCommonVpdData(iv_target, io_data, DeviceFW::PVPD, i_record, i_keyword, i_ascii, i_typeLengthByte); return l_errl; } //############################################################################## systemFwIpmiFruInv::systemFwIpmiFruInv( TARGETING::TargetHandle_t i_target ) :IpmiFruInv(i_target) { }; errlHndl_t systemFwIpmiFruInv::buildInternalUseArea(std::vector &io_data) { //This section not needed for system firmware type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t systemFwIpmiFruInv::buildChassisInfoArea(std::vector &io_data) { //This section not needed for system firmware type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t systemFwIpmiFruInv::buildBoardInfoArea(std::vector &io_data) { //This section not needed for system firmware type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t systemFwIpmiFruInv::buildProductInfoArea(std::vector &io_data) { errlHndl_t l_errl = NULL; do { //Set formatting data that goes at the beginning of the record preFormatProcessing(io_data, true); uint8_t l_data[] = {IPMIFRUINV::TYPELENGTH_BYTE_NULL, IPMIFRUINV::TYPELENGTH_BYTE_ASCII + 18, 'O','p','e', 'n','P','O','W','E','R',' ','F','i','r','m','w','a', 'r','e', IPMIFRUINV::TYPELENGTH_BYTE_NULL}; io_data.insert( io_data.end(), &l_data[0], &l_data[0] + (uint8_t(sizeof(l_data) / sizeof(uint8_t)))); //Get PNOR Version Here PNOR::SectionInfo_t l_pnorInfo; l_errl = getSectionInfo( PNOR::VERSION , l_pnorInfo); if (l_errl) { break; } uint8_t* l_versionData = reinterpret_cast( l_pnorInfo.vaddr ); //Total Bytes in PNOR Version String uint8_t l_numBytes = 0; uint8_t l_curOffset = 0; //Total Number of fields needed to print PNOR Version String uint8_t l_numFields = 0; bool l_clearStandardFields = true; //First determine number of bytes in PNOR Version string // with the caveat there is a max record size allowed, so // the string will be cut off if too long //Also, remove newline chars while ((l_numBytes < IPMIFRUINV::MAX_RECORD_SIZE - (uint8_t(sizeof(l_data) / sizeof(uint8_t))) - IPMIFRUINV::COMMON_HEADER_FORMAT_SIZE - 8) && (((char)(l_versionData[l_numBytes])) != '\0')) { if (((char)(l_versionData[l_numBytes])) == '\n') { if (l_numBytes > l_curOffset) { //Add on size of this field to the data buffer io_data.push_back( IPMIFRUINV::TYPELENGTH_BYTE_ASCII + (l_numBytes-l_curOffset)); io_data.insert(io_data.end(), &l_versionData[0]+(l_curOffset), &l_versionData[0]+(l_numBytes)); } //Null data for standard fields needs to be indicated once after // the first segment of data is displayed to match the // ipmi fru spec if (l_clearStandardFields) { //Add Empty Asset Tag io_data.push_back(uint8_t(0)); //FRU File ID - Empty io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); io_data.push_back(uint8_t(0)); // Empty FRU File ID bytes l_clearStandardFields = false; } //Increment past the newline char l_curOffset = l_numBytes + 1; } l_numBytes++; } if (l_curOffset == 0) { //Calculate the number of fields required to display this data // given only MAX_ASCII_FIELD_SIZE bytes can be in any one given // IPMI fru inventory field l_numFields = l_numBytes / IPMIFRUINV::MAX_ASCII_FIELD_SIZE; if (l_numBytes % IPMIFRUINV::MAX_ASCII_FIELD_SIZE) { l_numFields += 1; } //Count by number of fields, adding the data to the buffer as // we go. for (uint8_t i=0; i < l_numFields; i++) { //Determine the data size for this particular field uint8_t l_dataSize=IPMIFRUINV::MAX_ASCII_FIELD_SIZE; if (i == l_numFields - 1) { l_dataSize = l_numBytes - (i * IPMIFRUINV::MAX_ASCII_FIELD_SIZE); } //Add on size of this field to the data buffer io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_ASCII + l_dataSize); //Insert this segment of version string data io_data.insert(io_data.end(), &l_versionData[0]+(i * IPMIFRUINV::MAX_ASCII_FIELD_SIZE), &l_versionData[0]+(i * IPMIFRUINV::MAX_ASCII_FIELD_SIZE) +l_dataSize); //Null data for standard fields needs to be indicated once after // the first segment of data is displayed to match the // ipmi fru spec if (l_clearStandardFields) { //Add Empty Asset Tag io_data.push_back(uint8_t(0)); //FRU File ID - Empty io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); l_clearStandardFields = false; } } } else { if (l_numBytes > l_curOffset) { io_data.push_back( IPMIFRUINV::TYPELENGTH_BYTE_ASCII + (l_numBytes-l_curOffset)); io_data.insert(io_data.end(), &l_versionData[0]+(l_curOffset), &l_versionData[0]+(l_numBytes)); } } if (l_clearStandardFields) { //Add Asset Tag io_data.push_back(uint8_t(0)); //No Asset Tag needed - O bytes //FRU File ID - Empty io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); } io_data.push_back(IPMIFRUINV::END_OF_CUSTOM_FIELDS); } while(0); //Finalize section formatting postFormatProcessing(io_data); return l_errl; } errlHndl_t systemFwIpmiFruInv::buildMultiRecordInfoArea(std::vector &io_data) { //This section not needed for system firmware type return IpmiFruInv::buildEmptyArea(io_data); } //############################################################################## membufIpmiFruInv::membufIpmiFruInv( TARGETING::TargetHandle_t i_target, TARGETING::TargetHandleList i_extraTargets, bool i_isUpdate) :IpmiFruInv(i_target), iv_isUpdate(i_isUpdate), iv_extraTargets(i_extraTargets) { }; errlHndl_t membufIpmiFruInv::buildInternalUseArea( std::vector &io_data) { //This section not needed for the mem buf type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t membufIpmiFruInv::buildChassisInfoArea( std::vector &io_data) { //This section not needed for the mem buf type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t membufIpmiFruInv::buildBoardInfoArea( std::vector &io_data) { errlHndl_t l_errl = NULL; do { //Set formatting data that goes at the beginning of the record preFormatProcessing(io_data, true); // Set Mfg Build date // Grab VPD data into seperate data vector std::vector mfgDateData; l_errl = addVpdData(mfgDateData, PVPD::OPFR, PVPD::MB, false, false); if (l_errl) { break; } // Pass that to the function that sets the Build date setMfgData(io_data, mfgDateData); uint8_t l_fru_id = 0xFF; // if the centaur_ecid_fru_id is not valid then the centaur is on a // riser card, grab its vpd and populate the record l_fru_id = iv_target->getAttr(); if( l_fru_id == 0xFF ) { //Set Vendor Name - ascii formatted data l_errl = addVpdData(io_data, CVPD::OPFR, CVPD::VN, true); if (l_errl) { break; } //Set Product Name - ascii formatted data l_errl = addVpdData(io_data, CVPD::OPFR, CVPD::DR, true); if (l_errl) { break; } //Set Product Serial number - ascii formatted data TARGETING::ATTR_SERIAL_NUMBER_type l_sn = {'0'}; if( !( iv_target-> tryGetAttr ( l_sn) ) ) { // Should not fail. Need to use tryGetAttr due to complex type. // Use zeros if fails. TRACFCOMP(g_trac_ipmi,"membufIpmiFruInv::buildBoardInfoArea - " "Error getting serial number attribute"); } // The attribute size is 18. The vpd is 16. Only use 16. addCommonAttrData(io_data, (uint8_t *)&l_sn, VPD_SN_PN_VPD_SIZE); //Set Product Part number - ascii formatted data TARGETING::ATTR_PART_NUMBER_type l_pn = {'0'}; if( !( iv_target-> tryGetAttr ( l_pn) ) ) { // Should not fail. Need to use tryGetAttr due to complex type. // Use zeros if fails. TRACFCOMP(g_trac_ipmi,"membufIpmiFruInv::buildBoardInfoArea - " "Error getting part number attribute"); } // The attribute size is 18. The vpd is 16. Only use 16. addCommonAttrData(io_data, (uint8_t *)&l_pn, VPD_SN_PN_VPD_SIZE); //Push Fru File ID Byte - NULL io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); } else { //Set Vendor Name - NULL io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); //Set Product Name - NULL io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); //Set Product Serial number - NULL io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); //Set Product Part number - NULL io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); //Push Fru File ID Byte - NULL io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); } //Only set the ECID Data during an update scenario if (iv_isUpdate == true) { customData (iv_extraTargets, io_data); } //Indicate End of Custom Fields io_data.push_back(IPMIFRUINV::END_OF_CUSTOM_FIELDS); } while (0); //Complete record data formatting postFormatProcessing(io_data); if (l_errl) { TRACFCOMP(g_trac_ipmi,"membufIpmiFruInv::buildBoardInfoArea - " "Errors collecting board info data"); } return l_errl; } errlHndl_t membufIpmiFruInv::buildProductInfoArea( std::vector &io_data) { //This section not needed for the mem buf type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t membufIpmiFruInv::buildMultiRecordInfoArea( std::vector &io_data) { //This section not needed for the mem buf type return IpmiFruInv::buildEmptyArea(io_data); } errlHndl_t membufIpmiFruInv::addVpdData(std::vector &io_data, uint8_t i_record, uint8_t i_keyword, bool i_ascii, bool i_typeLengthByte) { errlHndl_t l_errl = NULL; l_errl = addCommonVpdData(iv_target, io_data, DeviceFW::CVPD, i_record, i_keyword, i_ascii, i_typeLengthByte); return l_errl; } //############################################################################## void IpmiFruInv::customData(TARGETING::TargetHandleList i_extraTargets, std::vector &io_data) { bool l_setCustomData = false; // Check if we should add ECID for (TARGETING::TargetHandleList::const_iterator extraTargets_it = i_extraTargets.begin(); extraTargets_it != i_extraTargets.end(); ++extraTargets_it ) { TARGETING::TargetHandle_t l_extraTarget = *extraTargets_it; //If we're in an update and the target is a membuf, we update the ecid. if ( l_extraTarget->getAttr() == TARGETING::TYPE_MEMBUF) { TARGETING::ATTR_ECID_type ecidInfo; bool getEcid = l_extraTarget->tryGetAttr(ecidInfo); if (getEcid) { l_setCustomData = true; addEcidData(l_extraTarget, ecidInfo, io_data); } else { TRACFCOMP(g_trac_ipmi, "No ECID info for this huid 0x%x", TARGETING::get_huid(l_extraTarget)); } } } //If no Custom data was sent, an Empty Byte is needed if (!l_setCustomData) { io_data.push_back(IPMIFRUINV::TYPELENGTH_BYTE_NULL); } } void IpmiFruInv::addEcidData(const TARGETING::TargetHandle_t& i_target, const TARGETING::ATTR_ECID_type& i_ecidInfo, std::vector &io_data) { // Create Custom ECID Field // - First put in 'ECID:' to make it obvious what this is uint8_t l_data[] = {IPMIFRUINV::TYPELENGTH_BYTE_ASCII + 37,'E','C','I','D', ':'}; // @todo-RTC:124687 - Refactor multiple reallocations io_data.insert( io_data.end(), &l_data[0], &l_data[0] + (uint8_t(sizeof(l_data) / sizeof(uint8_t)))); CPPASSERT(sizeof(ATTR_ECID_type) == 16); CPPASSERT((sizeof(i_ecidInfo) / sizeof(ATTR_ECID_type)) == 2); char l_ecidAscii[33]; sprintf(l_ecidAscii, "%.16llX%.16llX", i_ecidInfo[0], i_ecidInfo[1]); uint8_t* l_vDataPtr = (uint8_t*) &l_ecidAscii[0]; io_data.insert(io_data.end(), &l_vDataPtr[0], &l_vDataPtr[0]+32); return; } void IpmiFruInv::addECData(const TARGETING::TargetHandle_t& i_target, const TARGETING::ATTR_EC_type& i_ecInfo, std::vector &io_data) { // Create Custom EC Field // - First put in 'EC:' to make it obvious what this is uint8_t l_data[] = {IPMIFRUINV::TYPELENGTH_BYTE_ASCII + 5,'E','C',':'}; // @todo-RTC:124687 - Refactor multiple reallocations io_data.insert( io_data.end(), &l_data[0], &l_data[0] + (uint8_t(sizeof(l_data) / sizeof(uint8_t)))); CPPASSERT(sizeof(ATTR_EC_type) == 1); CPPASSERT((sizeof(i_ecInfo) / sizeof(ATTR_EC_type)) == 1); char l_ecAscii[3]; sprintf(l_ecAscii,"%X",i_ecInfo); io_data.insert(io_data.end(), &l_ecAscii[0],&l_ecAscii[2]); return; } errlHndl_t IpmiFruInv::addCommonVpdData( const TARGETING::TargetHandle_t& i_target, std::vector &io_data, DeviceFW::AccessType i_accessType, uint8_t i_record, uint8_t i_keyword, bool i_ascii, bool i_typeLengthByte) { size_t l_vpdSize = 0; errlHndl_t l_errl = NULL; do { // First get size with NULL call: // Bypass DEVICE_?VPD_ADDRESS inorder to maximize common code l_errl = deviceRead(i_target, NULL, l_vpdSize, i_accessType, i_record, i_keyword, VPD::AUTOSELECT); if (l_errl) { TRACFCOMP(g_trac_ipmi,"addCommonVpdData - Error " "while reading keyword size"); break; } //Assert if vpd field is too large to fit in IPMI fru inventory format assert(l_vpdSize < IPMIFRUINV::TYPELENGTH_BYTE_ASCII); if (l_vpdSize > 0) { uint8_t l_offset = 0; //Add on the typelength byte if requested if (i_typeLengthByte) { //Determine how big data is and expand it to handle the soon to //be read VPD data l_offset = io_data.size(); io_data.resize(l_offset + 1 + l_vpdSize); //Add on the data to the type/length byte indicating it is ascii // otherwise leave it as binary if (i_ascii) { io_data.at(l_offset) = l_vpdSize + IPMIFRUINV::TYPELENGTH_BYTE_ASCII; } else { io_data.at(l_offset) = l_vpdSize; } l_offset += 1; } else { //Determine how big data is and expand it to handle the soon to //be read VPD data l_offset = io_data.size(); io_data.resize(l_offset + l_vpdSize); } //Read the VPD data directly into fru inventory data buffer l_errl = deviceRead(i_target, &io_data[l_offset], l_vpdSize, i_accessType, i_record, i_keyword, VPD::AUTOSELECT); } else { TRACFCOMP(g_trac_ipmi,"addCommonVpdData - " " No size returned for keyword"); } } while(0); if (l_errl) { TRACFCOMP(g_trac_ipmi, "addCommonVpdData - Error " "acquiring data from Vpd."); } return l_errl; } void IpmiFruInv::addCommonAttrData( std::vector &io_data, uint8_t * i_pAttrData, size_t i_length) { uint8_t l_offset = io_data.size(); //Determine how big data is and expand it to handle the attr data //and the typelength byte io_data.resize(l_offset + 1 + i_length); //Add the type/length byte indicating ascii data. io_data.at(l_offset) = i_length + IPMIFRUINV::TYPELENGTH_BYTE_ASCII; //copy attr data memcpy (&io_data[l_offset+1],i_pAttrData,i_length); } void IPMIFRUINV::clearData(uint8_t i_fruId) { uint8_t l_clearData[] = {IPMIFRUINV::RECORD_NOT_PRESENT, IPMIFRUINV::RECORD_NOT_PRESENT, IPMIFRUINV::RECORD_NOT_PRESENT, IPMIFRUINV::RECORD_NOT_PRESENT, IPMIFRUINV::RECORD_NOT_PRESENT, IPMIFRUINV::RECORD_NOT_PRESENT, IPMIFRUINV::RECORD_NOT_PRESENT, IPMIFRUINV::RECORD_NOT_PRESENT}; //Use IMPIFRU::writeData to send data to service processor IPMIFRU::writeData(i_fruId, l_clearData, IPMIFRUINV::COMMON_HEADER_FORMAT_SIZE, IPMIFRUINV::DEFAULT_FRU_OFFSET); } void IPMIFRUINV::setData(bool i_updateData) { errlHndl_t l_errl = NULL; do { // find CLASS_SYS (the top level target) TARGETING::Target* pSys; TARGETING::targetService().getTopLevelTarget(pSys); if (!(pSys)) { TRACFCOMP(g_trac_ipmi,"IPMIFRUINV::setData - No CLASS_SYS TopLevelTarget found:" " not setting IPMI Fru Inventory"); break; } //Container with list of frus and a boolean indicating whether the data //needs to be cleared or not // @todo-RTC:124687 - Refactor map use std::map frusToClear; //List of all potential Frus that could need IPMI Fru Inv. Data Sent std::vector< std::pair > l_potentialFrus; if (i_updateData == false) { IPMIFRUINV::gatherClearData(pSys, frusToClear); } //Get System FW FRU_ID if available uint32_t l_systemFwFruId; bool hasSystemFwFruId = pSys->tryGetAttr(l_systemFwFruId); if (hasSystemFwFruId) { l_potentialFrus.push_back(std::make_pair(pSys, l_systemFwFruId)); } // Find list of all target types that may need a fru inv. record set IPMIFRUINV::gatherSetData(pSys, frusToClear, l_potentialFrus, i_updateData); //Now Loop through all TargetHandle_t, uint8_t pairs to see if there are //multiple targets with the same fruId. These will be formed into a list //as data from all Targets will be combined into one IPMI Fru Inventory //Record under the same fruId. std::vector >::iterator l_iter; for (l_iter = l_potentialFrus.begin(); l_iter != l_potentialFrus.end(); ++l_iter) { //iterators to walk list and group frus together std::vector >::iterator l_curPair = l_iter; std::vector >::iterator l_nextPair = l_iter; //The 'base' TargetHandleList will have one FRU TARGETING::TargetHandleList l_curFru; l_curFru.push_back(l_curPair->first); //This will be the fruId to compare with what comes after this //Target in the vector uint8_t l_fruId = l_curPair->second; TRACFCOMP(g_trac_ipmi, "IPMIFRUINV::setData - Collecting all IPMI FRU Inventory Targets with fruId: [%08x]", l_fruId); ++l_nextPair; for( ; l_nextPair != l_potentialFrus.end() && l_nextPair->second == l_fruId; ++l_nextPair) { l_curFru.push_back(l_nextPair->first); l_iter = l_nextPair; } IpmiFruInv *l_fru = IpmiFruInv::Factory(l_curFru, i_updateData); if (l_fru != NULL) { //Target recognized, build & send IPMI FRU Invenotry record l_errl = l_fru->buildFruInvRecord(); if (l_errl) { TRACFCOMP(g_trac_ipmi, "IPMIFRUINV::setData - Errors encountered, will skip setting the rest of the data"); break; } TRACFCOMP(g_trac_ipmi, "IPMIFRUINV::setData - Sending IPMI FRU Inventory Data for target with fruId: [%08x] and size [%08x]", l_fruId, l_curFru.size()); l_fru->sendFruData(l_fruId); delete l_fru; } } //Do not clear data during a data update if (i_updateData == false) { //Now clear any FRU Data for fruIds that didn't have data set. This //will handle the case where something was removed from the system for (std::map::iterator it=frusToClear.begin(); it!=frusToClear.end(); ++it) { //If the bool is true its data needs to be cleared if (it->second == true) { IPMIFRUINV::clearData(it->first); } } } } while(0); if (l_errl) { //Commit errorlog encountered indicating there were issues //setting the FRU Inventory Data TRACFCOMP(g_trac_ipmi, "Errors encountered setting Fru Inventory Data"); l_errl->collectTrace(IPMI_COMP_NAME); errlCommit(l_errl, IPMI_COMP_ID); } return; } void IPMIFRUINV::gatherClearData(const TARGETING::Target* i_pSys, std::map& io_frusToClear) { TARGETING::PredicateCTM predChip(TARGETING::CLASS_CHIP); TARGETING::PredicateCTM predNode(TARGETING::CLASS_ENC, TARGETING::TYPE_NODE); TARGETING::PredicateCTM predDimm(TARGETING::CLASS_LOGICAL_CARD, TARGETING::TYPE_DIMM); TARGETING::PredicatePostfixExpr checkAllExpr; checkAllExpr.push(&predChip).push(&predNode).Or().push(&predDimm).Or(); TARGETING::TargetHandleList l_allPossibleFrus; TARGETING::targetService().getAssociated( l_allPossibleFrus, i_pSys, TARGETING::TargetService::CHILD, TARGETING::TargetService::ALL, &checkAllExpr ); for (TARGETING::TargetHandleList::const_iterator pTarget_it = l_allPossibleFrus.begin(); pTarget_it != l_allPossibleFrus.end(); ++pTarget_it) { TARGETING::TargetHandle_t pTarget = *pTarget_it; uint32_t l_fruId = pTarget->getAttr(); if (l_fruId) { //Assume we clear all possible targets to start // @todo-RTC:124506 - New logic may be needed to clear all targets // after a code update io_frusToClear[l_fruId] = true; } } return; } void IPMIFRUINV::gatherSetData(const TARGETING::Target* i_pSys, std::map& io_frusToClear, std::vector< std::pair >& io_potentialFrus, bool i_updateData) { TARGETING::PredicateCTM predChip(TARGETING::CLASS_CHIP); TARGETING::PredicateCTM predDimm(TARGETING::CLASS_LOGICAL_CARD, TARGETING::TYPE_DIMM); TARGETING::PredicatePostfixExpr checkExpr; TARGETING::PredicateHwas l_present; // @todo-RTC:124553 - Additional logic for deconfigured Frus // may be needed l_present.present(true); checkExpr.push(&predChip); TARGETING::PredicateCTM predNode(TARGETING::CLASS_ENC, TARGETING::TYPE_NODE); checkExpr.push(&predNode).Or(); //When updating data on a later pass ignore dimms if (i_updateData) { checkExpr.push(&l_present).And(); } else { checkExpr.push(&predDimm).Or().push(&l_present).And(); } TARGETING::TargetHandleList pCheckPres; TARGETING::targetService().getAssociated( pCheckPres, i_pSys, TARGETING::TargetService::CHILD, TARGETING::TargetService::ALL, &checkExpr ); for (TARGETING::TargetHandleList::const_iterator pTarget_it = pCheckPres.begin(); pTarget_it != pCheckPres.end(); ++pTarget_it ) { TARGETING::TargetHandle_t pTarget = *pTarget_it; uint32_t l_fruId = pTarget->getAttr(); // check if this is a membuf target, if it is and the special // attribute to say we want a separate fru entry for the centaur ecids // is populated, then we will push that ecid to the potential frus // list if (TARGETING::TYPE_MEMBUF == pTarget->getAttr()) { uint8_t l_ecidFruId = pTarget->getAttr(); // if the ecid fru id is valid use it, else use the regular fru id l_fruId = ( l_ecidFruId == 0xFF ) ? l_fruId : l_ecidFruId; TRACFCOMP(g_trac_ipmi,"l_fruId = 0x%x, l_ecidFruId = 0x%x", l_fruId, l_ecidFruId); } if (l_fruId) { //when updating data, ignore clearing data if (i_updateData == false) { //Indicate this fruId has data and later clear is not needed io_frusToClear[l_fruId] = false; } io_potentialFrus.push_back(std::make_pair(pTarget, l_fruId)); } } //Sort the vector by FRU_ID for later use. //When the planar eeprom is shared for planar and memory buffer vpd, the //node and membuffs will have the same FRU ID. For this case, sort the Node //to be ahead of the mem buffs. The mem buffs will be extra targets for //their ECIDs. std::sort(io_potentialFrus.begin(), io_potentialFrus.end(), comparePairs); }