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gerrit.openbmc.org / openbmc / pldm / 3012b63243a9e995cdeb6fdf11118169d98eb8f4 / . / pldmtool / pldm_platform_cmd.cpp
blob: 6a07a386b2c9b3221ddf42273387b2999a0a8446 [file] [log] [blame]
#include "common/types.hpp"
#include "pldm_cmd_helper.hpp"
#include <libpldm/entity.h>
#include <libpldm/platform.h>
#include <libpldm/state_set.h>
#include <algorithm>
#include <cstddef>
#include <format>
#include <map>
#include <memory>
#include <ranges>
#ifdef OEM_IBM
#include "oem/ibm/oem_ibm_state_set.hpp"
#endif
using namespace pldm::utils;
namespace pldmtool
{
namespace platform
{
namespace
{
using namespace pldmtool::helper;
static const std::map<uint8_t, std::string> sensorPresState{
{PLDM_SENSOR_UNKNOWN, "Sensor Unknown"},
{PLDM_SENSOR_NORMAL, "Sensor Normal"},
{PLDM_SENSOR_WARNING, "Sensor Warning"},
{PLDM_SENSOR_CRITICAL, "Sensor Critical"},
{PLDM_SENSOR_FATAL, "Sensor Fatal"},
{PLDM_SENSOR_LOWERWARNING, "Sensor Lower Warning"},
{PLDM_SENSOR_LOWERCRITICAL, "Sensor Lower Critical"},
{PLDM_SENSOR_LOWERFATAL, "Sensor Lower Fatal"},
{PLDM_SENSOR_UPPERWARNING, "Sensor Upper Warning"},
{PLDM_SENSOR_UPPERCRITICAL, "Sensor Upper Critical"},
{PLDM_SENSOR_UPPERFATAL, "Sensor Upper Fatal"}};
static const std::map<uint8_t, std::string> sensorOpState{
{PLDM_SENSOR_ENABLED, "Sensor Enabled"},
{PLDM_SENSOR_DISABLED, "Sensor Disabled"},
{PLDM_SENSOR_UNAVAILABLE, "Sensor Unavailable"},
{PLDM_SENSOR_STATUSUNKOWN, "Sensor Status Unknown"},
{PLDM_SENSOR_FAILED, "Sensor Failed"},
{PLDM_SENSOR_INITIALIZING, "Sensor Sensor Initializing"},
{PLDM_SENSOR_SHUTTINGDOWN, "Sensor Shutting down"},
{PLDM_SENSOR_INTEST, "Sensor Intest"}};
const std::map<uint8_t, std::string> effecterOpState{
{EFFECTER_OPER_STATE_ENABLED_UPDATEPENDING,
"Effecter Enabled Update Pending"},
{EFFECTER_OPER_STATE_ENABLED_NOUPDATEPENDING,
"Effecter Enabled No Update Pending"},
{EFFECTER_OPER_STATE_DISABLED, "Effecter Disabled"},
{EFFECTER_OPER_STATE_UNAVAILABLE, "Effecter Unavailable"},
{EFFECTER_OPER_STATE_STATUSUNKNOWN, "Effecter Status Unknown"},
{EFFECTER_OPER_STATE_FAILED, "Effecter Failed"},
{EFFECTER_OPER_STATE_INITIALIZING, "Effecter Initializing"},
{EFFECTER_OPER_STATE_SHUTTINGDOWN, "Effecter Shutting Down"},
{EFFECTER_OPER_STATE_INTEST, "Effecter In Test"}};
std::string getEffecterOpState(uint8_t state)
{
return effecterOpState.contains(state) ? effecterOpState.at(state)
: std::to_string(state);
}
std::vector<std::unique_ptr<CommandInterface>> commands;
} // namespace
using ordered_json = nlohmann::ordered_json;
class GetPDR : public CommandInterface
{
public:
~GetPDR() = default;
GetPDR() = delete;
GetPDR(const GetPDR&) = delete;
GetPDR(GetPDR&&) = default;
GetPDR& operator=(const GetPDR&) = delete;
GetPDR& operator=(GetPDR&&) = delete;
using CommandInterface::CommandInterface;
explicit GetPDR(const char* type, const char* name, CLI::App* app) :
CommandInterface(type, name, app), dataTransferHandle(0),
operationFlag(PLDM_GET_FIRSTPART), requestCount(UINT16_MAX),
recordChangeNumber(0), nextPartRequired(false)
{
auto pdrOptionGroup = app->add_option_group(
"Required Option",
"Retrieve individual PDR, all PDRs, PDRs of a requested type or retrieve all PDRs of the requested terminusID");
pdrOptionGroup->add_option(
"-d,--data", recordHandle,
"retrieve individual PDRs from a PDR Repository\n"
"eg: The recordHandle value for the PDR to be retrieved and 0 "
"means get first PDR in the repository.");
pdrRecType = "";
pdrOptionGroup->add_option(
"-t, --type", pdrRecType,
"retrieve all PDRs of the requested type\n"
"supported types:\n"
"[terminusLocator, stateSensor, "
"numericEffecter, stateEffecter, "
"compactNumericSensor, sensorauxname, "
"efffecterAuxName, numericsensor, "
"EntityAssociation, fruRecord, ... ]");
getPDRGroupOption = pdrOptionGroup->add_option(
"-i, --terminusID", pdrTerminus,
"retrieve all PDRs of the requested terminusID\n"
"supported IDs:\n [1, 2, 208...]");
allPDRs = false;
pdrOptionGroup->add_flag("-a, --all", allPDRs,
"retrieve all PDRs from a PDR repository");
pdrOptionGroup->require_option(1);
}
void parseGetPDROptions()
{
optTIDSet = false;
if (getPDRGroupOption->count() > 0)
{
optTIDSet = true;
getPDRs();
}
}
void getPDRs()
{
// start the array
std::cout << "[";
recordHandle = 0;
do
{
CommandInterface::exec();
} while (recordHandle != 0);
// close the array
std::cout << "]\n";
if (handleFound)
{
recordHandle = 0;
uint32_t prevRecordHandle = 0;
do
{
CommandInterface::exec();
if (recordHandle == prevRecordHandle)
{
return;
}
prevRecordHandle = recordHandle;
} while (recordHandle != 0);
}
}
void exec() override
{
if (allPDRs || !pdrRecType.empty())
{
if (!pdrRecType.empty())
{
std::transform(pdrRecType.begin(), pdrRecType.end(),
pdrRecType.begin(), tolower);
}
// start the array
std::cout << "[\n";
// Retrieve all PDR records starting from the first
recordHandle = 0;
uint32_t prevRecordHandle = 0;
std::map<uint32_t, uint32_t> recordsSeen;
do
{
CommandInterface::exec();
// recordHandle is updated to nextRecord when
// CommandInterface::exec() is successful.
// In case of any error, return.
if (recordHandle == prevRecordHandle && !nextPartRequired)
{
return;
}
// check for circular references.
auto result =
recordsSeen.emplace(recordHandle, prevRecordHandle);
if (!result.second && !nextPartRequired)
{
std::cerr
<< "Record handle " << recordHandle
<< " has multiple references: " << result.first->second
<< ", " << prevRecordHandle << "\n";
return;
}
prevRecordHandle = recordHandle;
if (recordHandle != 0)
{
// close the array
std::cout << ",";
}
} while (recordHandle != 0);
// close the array
std::cout << "]\n";
}
else
{
do
{
CommandInterface::exec();
} while (nextPartRequired);
}
}
std::pair<int, std::vector<uint8_t>> createRequestMsg() override
{
std::vector<uint8_t> requestMsg(
sizeof(pldm_msg_hdr) + PLDM_GET_PDR_REQ_BYTES);
auto request = reinterpret_cast<pldm_msg*>(requestMsg.data());
auto rc = encode_get_pdr_req(
instanceId, recordHandle, dataTransferHandle, operationFlag,
requestCount, recordChangeNumber, request, PLDM_GET_PDR_REQ_BYTES);
return {rc, requestMsg};
}
void parseResponseMsg(pldm_msg* responsePtr, size_t payloadLength) override
{
uint8_t completionCode = 0;
uint8_t respRecordData[UINT16_MAX] = {0};
uint32_t nextRecordHndl = 0;
uint32_t nextDataTransferHndl = 0;
uint8_t transferFlag = 0;
uint16_t respCnt = 0;
uint8_t transferCRC = 0;
auto rc = decode_get_pdr_resp(
responsePtr, payloadLength, &completionCode, &nextRecordHndl,
&nextDataTransferHndl, &transferFlag, &respCnt, respRecordData,
sizeof(respRecordData), &transferCRC);
if (rc != PLDM_SUCCESS || completionCode != PLDM_SUCCESS)
{
std::cerr << "Response Message Error: "
<< "rc=" << rc << ",cc=" << (int)completionCode
<< std::endl;
nextPartRequired = false;
return;
}
if (optTIDSet && !handleFound)
{
terminusHandle = getTerminusHandle(respRecordData, pdrTerminus);
if (terminusHandle.has_value())
{
recordHandle = 0;
return;
}
else
{
recordHandle = nextRecordHndl;
return;
}
}
else
{
recordData.insert(recordData.end(), respRecordData,
respRecordData + respCnt);
// End or StartAndEnd
if (transferFlag == PLDM_PLATFORM_TRANSFER_END ||
transferFlag == PLDM_PLATFORM_TRANSFER_START_AND_END)
{
printPDRMsg(nextRecordHndl, respCnt, recordData.data(),
terminusHandle);
nextPartRequired = false;
recordHandle = nextRecordHndl;
dataTransferHandle = 0;
recordChangeNumber = 0;
operationFlag = PLDM_GET_FIRSTPART;
recordData.clear();
}
else
{
nextPartRequired = true;
dataTransferHandle = nextDataTransferHndl;
struct pldm_pdr_hdr* pdr_hdr =
reinterpret_cast<struct pldm_pdr_hdr*>(respRecordData);
recordChangeNumber = pdr_hdr->record_change_num;
operationFlag = PLDM_GET_NEXTPART;
}
}
}
private:
const std::map<pldm::pdr::EntityType, std::string> entityType = {
{PLDM_ENTITY_UNSPECIFIED, "Unspecified"},
{PLDM_ENTITY_OTHER, "Other"},
{PLDM_ENTITY_NETWORK, "Network"},
{PLDM_ENTITY_GROUP, "Group"},
{PLDM_ENTITY_REMOTE_MGMT_COMM_DEVICE,
"Remote Management Communication Device"},
{PLDM_ENTITY_EXTERNAL_ENVIRONMENT, "External Environment"},
{PLDM_ENTITY_COMM_CHANNEL, " Communication Channel"},
{PLDM_ENTITY_TERMINUS, "PLDM Terminus"},
{PLDM_ENTITY_PLATFORM_EVENT_LOG, " Platform Event Log"},
{PLDM_ENTITY_KEYPAD, "keypad"},
{PLDM_ENTITY_SWITCH, "Switch"},
{PLDM_ENTITY_PUSHBUTTON, "Pushbutton"},
{PLDM_ENTITY_DISPLAY, "Display"},
{PLDM_ENTITY_INDICATOR, "Indicator"},
{PLDM_ENTITY_SYS_MGMT_SW, "System Management Software"},
{PLDM_ENTITY_SYS_FIRMWARE, "System Firmware"},
{PLDM_ENTITY_OPERATING_SYS, "Operating System"},
{PLDM_ENTITY_VIRTUAL_MACHINE_MANAGER, "Virtual Machine Manager"},
{PLDM_ENTITY_OS_LOADER, "OS Loader"},
{PLDM_ENTITY_DEVICE_DRIVER, "Device Driver"},
{PLDM_ENTITY_MGMT_CONTROLLER_FW, "Management Controller Firmware"},
{PLDM_ENTITY_SYSTEM_CHASSIS, "System chassis (main enclosure)"},
{PLDM_ENTITY_SUB_CHASSIS, "Sub-chassis"},
{PLDM_ENTITY_DISK_DRIVE_BAY, "Disk Drive Bay"},
{PLDM_ENTITY_PERIPHERAL_BAY, "Peripheral Bay"},
{PLDM_ENTITY_DEVICE_BAY, "Device bay"},
{PLDM_ENTITY_DOOR, "Door"},
{PLDM_ENTITY_ACCESS_PANEL, "Access Panel"},
{PLDM_ENTITY_COVER, "Cover"},
{PLDM_ENTITY_BOARD, "Board"},
{PLDM_ENTITY_CARD, "Card"},
{PLDM_ENTITY_MODULE, "Module"},
{PLDM_ENTITY_SYS_MGMT_MODULE, "System management module"},
{PLDM_ENTITY_SYS_BOARD, "System Board"},
{PLDM_ENTITY_MEMORY_BOARD, "Memory Board"},
{PLDM_ENTITY_MEMORY_MODULE, "Memory Module"},
{PLDM_ENTITY_PROC_MODULE, "Processor Module"},
{PLDM_ENTITY_ADD_IN_CARD, "Add-in Card"},
{PLDM_ENTITY_CHASSIS_FRONT_PANEL_BOARD,
"Chassis front panel board(control panel)"},
{PLDM_ENTITY_BACK_PANEL_BOARD, "Back panel board"},
{PLDM_ENTITY_POWER_MGMT, "Power management board"},
{PLDM_ENTITY_POWER_SYS_BOARD, "Power system board"},
{PLDM_ENTITY_DRIVE_BACKPLANE, "Drive backplane"},
{PLDM_ENTITY_SYS_INTERNAL_EXPANSION_BOARD,
"System internal expansion board"},
{PLDM_ENTITY_OTHER_SYS_BOARD, "Other system board"},
{PLDM_ENTITY_CHASSIS_BACK_PANEL_BOARD, "Chassis back panel board"},
{PLDM_ENTITY_PROCESSING_BLADE, "Processing blade"},
{PLDM_ENTITY_CONNECTIVITY_SWITCH, "Connectivity switch"},
{PLDM_ENTITY_PROC_MEMORY_MODULE, "Processor/Memory Module"},
{PLDM_ENTITY_IO_MODULE, "I/O Module"},
{PLDM_ENTITY_PROC_IO_MODULE, "Processor I/O Module"},
{PLDM_ENTITY_COOLING_DEVICE, "Cooling device"},
{PLDM_ENTITY_COOLING_SUBSYSTEM, "Cooling subsystem"},
{PLDM_ENTITY_COOLING_UNIT, "Cooling Unit"},
{PLDM_ENTITY_FAN, "Fan"},
{PLDM_ENTITY_PELTIER_COOLING_DEVICE, "Peltier Cooling Device"},
{PLDM_ENTITY_LIQUID_COOLING_DEVICE, "Liquid Cooling Device"},
{PLDM_ENTITY_LIQUID_COOLING_SUBSYSTEM, "Liquid Colling Subsystem"},
{PLDM_ENTITY_OTHER_STORAGE_DEVICE, "Other Storage Device"},
{PLDM_ENTITY_FLOPPY_DRIVE, "Floppy Drive"},
{PLDM_ENTITY_FIXED_DISK_HARD_DRIVE, "Hard Drive"},
{PLDM_ENTITY_CD_DRIVE, "CD Drive"},
{PLDM_ENTITY_CD_DVD_DRIVE, "CD/DVD Drive"},
{PLDM_ENTITY_OTHER_SILICON_STORAGE_DEVICE,
"Other Silicon Storage Device"},
{PLDM_ENTITY_SOLID_STATE_SRIVE, "Solid State Drive"},
{PLDM_ENTITY_POWER_SUPPLY, "Power supply"},
{PLDM_ENTITY_BATTERY, "Battery"},
{PLDM_ENTITY_SUPER_CAPACITOR, "Super Capacitor"},
{PLDM_ENTITY_POWER_CONVERTER, "Power Converter"},
{PLDM_ENTITY_DC_DC_CONVERTER, "DC-DC Converter"},
{PLDM_ENTITY_AC_MAINS_POWER_SUPPLY, "AC mains power supply"},
{PLDM_ENTITY_DC_MAINS_POWER_SUPPLY, "DC mains power supply"},
{PLDM_ENTITY_PROC, "Processor"},
{PLDM_ENTITY_CHIPSET_COMPONENT, "Chipset Component"},
{PLDM_ENTITY_MGMT_CONTROLLER, "Management Controller"},
{PLDM_ENTITY_PERIPHERAL_CONTROLLER, "Peripheral Controller"},
{PLDM_ENTITY_SEEPROM, "SEEPROM"},
{PLDM_ENTITY_NVRAM_CHIP, "NVRAM Chip"},
{PLDM_ENTITY_FLASH_MEMORY_CHIP, "FLASH Memory chip"},
{PLDM_ENTITY_MEMORY_CHIP, "Memory Chip"},
{PLDM_ENTITY_MEMORY_CONTROLLER, "Memory Controller"},
{PLDM_ENTITY_NETWORK_CONTROLLER, "Network Controller"},
{PLDM_ENTITY_IO_CONTROLLER, "I/O Controller"},
{PLDM_ENTITY_SOUTH_BRIDGE, "South Bridge"},
{PLDM_ENTITY_REAL_TIME_CLOCK, "Real Time Clock (RTC)"},
{PLDM_ENTITY_FPGA_CPLD_DEVICE, "FPGA/CPLD Configurable Logic Device"},
{PLDM_ENTITY_OTHER_BUS, "Other Bus"},
{PLDM_ENTITY_SYS_BUS, "System Bus"},
{PLDM_ENTITY_I2C_BUS, "I2C Bus"},
{PLDM_ENTITY_SMBUS_BUS, "SMBus Bus"},
{PLDM_ENTITY_SPI_BUS, "SPI Bus"},
{PLDM_ENTITY_PCI_BUS, "PCI Bus"},
{PLDM_ENTITY_PCI_EXPRESS_BUS, "PCI Express Bus"},
{PLDM_ENTITY_PECI_BUS, "PECI Bus"},
{PLDM_ENTITY_LPC_BUS, "LPC Bus"},
{PLDM_ENTITY_USB_BUS, "USB Bus"},
{PLDM_ENTITY_FIREWIRE_BUS, "FireWire Bus"},
{PLDM_ENTITY_SCSI_BUS, "SCSI Bus"},
{PLDM_ENTITY_SATA_SAS_BUS, "SATA/SAS Bus"},
{PLDM_ENTITY_PROC_FRONT_SIDE_BUS, "Processor/Front-side Bus"},
{PLDM_ENTITY_INTER_PROC_BUS, "Inter-processor Bus"},
{PLDM_ENTITY_CONNECTOR, "Connector"},
{PLDM_ENTITY_SLOT, "Slot"},
{PLDM_ENTITY_CABLE, "Cable(electrical or optical)"},
{PLDM_ENTITY_INTERCONNECT, "Interconnect"},
{PLDM_ENTITY_PLUG, "Plug"},
{PLDM_ENTITY_SOCKET, "Socket"},
};
const std::map<uint16_t, std::string> stateSet = {
{PLDM_STATE_SET_HEALTH_STATE, "Health State"},
{PLDM_STATE_SET_AVAILABILITY, "Availability"},
{PLDM_STATE_SET_PREDICTIVE_CONDITION, "Predictive Condition"},
{PLDM_STATE_SET_REDUNDANCY_STATUS, "Redundancy Status"},
{PLDM_STATE_SET_HEALTH_REDUNDANCY_TREND, "Health/Redundancy Trend"},
{PLDM_STATE_SET_GROUP_RESOURCE_LEVEL, "Group Resource Level"},
{PLDM_STATE_SET_REDUNDANCY_ENTITY_ROLE, "Redundancy Entity Role"},
{PLDM_STATE_SET_OPERATIONAL_STATUS, "Operational Status"},
{PLDM_STATE_SET_OPERATIONAL_STRESS_STATUS, "Operational Stress Status"},
{PLDM_STATE_SET_OPERATIONAL_FAULT_STATUS, "Operational Fault Status"},
{PLDM_STATE_SET_OPERATIONAL_RUNNING_STATUS,
"Operational Running Status"},
{PLDM_STATE_SET_OPERATIONAL_CONNECTION_STATUS,
"Operational Connection Status"},
{PLDM_STATE_SET_PRESENCE, "Presence"},
{PLDM_STATE_SET_PERFORMANCE, "Performance"},
{PLDM_STATE_SET_CONFIGURATION_STATE, "Configuration State"},
{PLDM_STATE_SET_CHANGED_CONFIGURATION, "Changed Configuration"},
{PLDM_STATE_SET_IDENTIFY_STATE, "Identify State"},
{PLDM_STATE_SET_VERSION, "Version"},
{PLDM_STATE_SET_ALARM_STATE, "Alarm State"},
{PLDM_STATE_SET_DEVICE_INITIALIZATION, "Device Initialization"},
{PLDM_STATE_SET_THERMAL_TRIP, "Thermal Trip"},
{PLDM_STATE_SET_HEARTBEAT, "Heartbeat"},
{PLDM_STATE_SET_LINK_STATE, "Link State"},
{PLDM_STATE_SET_SMOKE_STATE, "Smoke State"},
{PLDM_STATE_SET_HUMIDITY_STATE, "Humidity State"},
{PLDM_STATE_SET_DOOR_STATE, "Door State"},
{PLDM_STATE_SET_SWITCH_STATE, "Switch State"},
{PLDM_STATE_SET_LOCK_STATE, "Lock State"},
{PLDM_STATE_SET_PHYSICAL_SECURITY, "Physical Security"},
{PLDM_STATE_SET_DOCK_AUTHORIZATION, "Dock Authorization"},
{PLDM_STATE_SET_HW_SECURITY, "Hardware Security"},
{PLDM_STATE_SET_PHYSICAL_COMM_CONNECTION,
"Physical Communication Connection"},
{PLDM_STATE_SET_COMM_LEASH_STATUS, "Communication Leash Status"},
{PLDM_STATE_SET_FOREIGN_NW_DETECTION_STATUS,
"Foreign Network Detection Status"},
{PLDM_STATE_SET_PASSWORD_PROTECTED_ACCESS_SECURITY,
"Password-Protected Access Security"},
{PLDM_STATE_SET_SECURITY_ACCESS_PRIVILEGE_LEVEL,
"Security Access –PrivilegeLevel"},
{PLDM_STATE_SET_SESSION_AUDIT, "PLDM Session Audit"},
{PLDM_STATE_SET_SW_TERMINATION_STATUS, "Software Termination Status"},
{PLDM_STATE_SET_STORAGE_MEDIA_ACTIVITY, "Storage Media Activity"},
{PLDM_STATE_SET_BOOT_RESTART_CAUSE, "Boot/Restart Cause"},
{PLDM_STATE_SET_BOOT_RESTART_REQUEST, "Boot/Restart Request"},
{PLDM_STATE_SET_ENTITY_BOOT_STATUS, "Entity Boot Status"},
{PLDM_STATE_SET_BOOT_ERROR_STATUS, "Boot ErrorStatus"},
{PLDM_STATE_SET_BOOT_PROGRESS, "Boot Progress"},
{PLDM_STATE_SET_SYS_FIRMWARE_HANG, "System Firmware Hang"},
{PLDM_STATE_SET_POST_ERRORS, "POST Errors"},
{PLDM_STATE_SET_LOG_FILL_STATUS, "Log Fill Status"},
{PLDM_STATE_SET_LOG_FILTER_STATUS, "Log Filter Status"},
{PLDM_STATE_SET_LOG_TIMESTAMP_CHANGE, "Log Timestamp Change"},
{PLDM_STATE_SET_INTERRUPT_REQUESTED, "Interrupt Requested"},
{PLDM_STATE_SET_INTERRUPT_RECEIVED, "Interrupt Received"},
{PLDM_STATE_SET_DIAGNOSTIC_INTERRUPT_REQUESTED,
"Diagnostic Interrupt Requested"},
{PLDM_STATE_SET_DIAGNOSTIC_INTERRUPT_RECEIVED,
"Diagnostic Interrupt Received"},
{PLDM_STATE_SET_IO_CHANNEL_CHECK_NMI_REQUESTED,
"I/O Channel Check NMI Requested"},
{PLDM_STATE_SET_IO_CHANNEL_CHECK_NMI_RECEIVED,
"I/O Channel Check NMI Received"},
{PLDM_STATE_SET_FATAL_NMI_REQUESTED, "Fatal NMI Requested"},
{PLDM_STATE_SET_FATAL_NMI_RECEIVED, "Fatal NMI Received"},
{PLDM_STATE_SET_SOFTWARE_NMI_REQUESTED, "Software NMI Requested"},
{PLDM_STATE_SET_SOFTWARE_NMI_RECEIVED, "Software NMI Received"},
{PLDM_STATE_SET_SMI_REQUESTED, "SMI Requested"},
{PLDM_STATE_SET_SMI_RECEIVED, "SMI Received"},
{PLDM_STATE_SET_PCI_PERR_REQUESTED, "PCI PERR Requested"},
{PLDM_STATE_SET_PCI_PERR_RECEIVED, "PCI PERR Received"},
{PLDM_STATE_SET_PCI_SERR_REQUESTED, "PCI SERR Requested "},
{PLDM_STATE_SET_PCI_SERR_RECEIVED, "PCI SERR Received"},
{PLDM_STATE_SET_BUS_ERROR_STATUS, "Bus Error Status"},
{PLDM_STATE_SET_WATCHDOG_STATUS, "Watchdog Status"},
{PLDM_STATE_SET_POWER_SUPPLY_STATE, "Power Supply State"},
{PLDM_STATE_SET_DEVICE_POWER_STATE, "Device Power State"},
{PLDM_STATE_SET_ACPI_POWER_STATE, "ACPI Power State"},
{PLDM_STATE_SET_BACKUP_POWER_SOURCE, "Backup Power Source"},
{PLDM_STATE_SET_SYSTEM_POWER_STATE, "System Power State "},
{PLDM_STATE_SET_BATTERY_ACTIVITY, "Battery Activity"},
{PLDM_STATE_SET_BATTERY_STATE, "Battery State"},
{PLDM_STATE_SET_PROC_POWER_STATE, "Processor Power State"},
{PLDM_STATE_SET_POWER_PERFORMANCE_STATE, "Power-Performance State"},
{PLDM_STATE_SET_PROC_ERROR_STATUS, "Processor Error Status"},
{PLDM_STATE_SET_BIST_FAILURE_STATUS, "BIST FailureStatus"},
{PLDM_STATE_SET_IBIST_FAILURE_STATUS, "IBIST FailureStatus"},
{PLDM_STATE_SET_PROC_HANG_IN_POST, "Processor Hang in POST"},
{PLDM_STATE_SET_PROC_STARTUP_FAILURE, "Processor Startup Failure"},
{PLDM_STATE_SET_UNCORRECTABLE_CPU_ERROR, "Uncorrectable CPU Error"},
{PLDM_STATE_SET_MACHINE_CHECK_ERROR, "Machine Check Error"},
{PLDM_STATE_SET_CORRECTED_MACHINE_CHECK, "Corrected Machine Check"},
{PLDM_STATE_SET_CACHE_STATUS, "Cache Status"},
{PLDM_STATE_SET_MEMORY_ERROR_STATUS, "Memory Error Status"},
{PLDM_STATE_SET_REDUNDANT_MEMORY_ACTIVITY_STATUS,
"Redundant Memory Activity Status"},
{PLDM_STATE_SET_ERROR_DETECTION_STATUS, "Error Detection Status"},
{PLDM_STATE_SET_STUCK_BIT_STATUS, "Stuck Bit Status"},
{PLDM_STATE_SET_SCRUB_STATUS, "Scrub Status"},
{PLDM_STATE_SET_SLOT_OCCUPANCY, "Slot Occupancy"},
{PLDM_STATE_SET_SLOT_STATE, "Slot State"},
};
const std::array<std::string_view, 4> sensorInit = {
"noInit", "useInitPDR", "enableSensor", "disableSensor"};
const std::array<std::string_view, 4> effecterInit = {
"noInit", "useInitPDR", "enableEffecter", "disableEffecter"};
const std::map<uint8_t, std::string> pdrType = {
{PLDM_TERMINUS_LOCATOR_PDR, "Terminus Locator PDR"},
{PLDM_NUMERIC_SENSOR_PDR, "Numeric Sensor PDR"},
{PLDM_NUMERIC_SENSOR_INITIALIZATION_PDR,
"Numeric Sensor Initialization PDR"},
{PLDM_STATE_SENSOR_PDR, "State Sensor PDR"},
{PLDM_STATE_SENSOR_INITIALIZATION_PDR,
"State Sensor Initialization PDR"},
{PLDM_SENSOR_AUXILIARY_NAMES_PDR, "Sensor Auxiliary Names PDR"},
{PLDM_OEM_UNIT_PDR, "OEM Unit PDR"},
{PLDM_OEM_STATE_SET_PDR, "OEM State Set PDR"},
{PLDM_NUMERIC_EFFECTER_PDR, "Numeric Effecter PDR"},
{PLDM_NUMERIC_EFFECTER_INITIALIZATION_PDR,
"Numeric Effecter Initialization PDR"},
{PLDM_COMPACT_NUMERIC_SENSOR_PDR, "Compact Numeric Sensor PDR"},
{PLDM_STATE_EFFECTER_PDR, "State Effecter PDR"},
{PLDM_STATE_EFFECTER_INITIALIZATION_PDR,
"State Effecter Initialization PDR"},
{PLDM_EFFECTER_AUXILIARY_NAMES_PDR, "Effecter Auxiliary Names PDR"},
{PLDM_EFFECTER_OEM_SEMANTIC_PDR, "Effecter OEM Semantic PDR"},
{PLDM_PDR_ENTITY_ASSOCIATION, "Entity Association PDR"},
{PLDM_ENTITY_AUXILIARY_NAMES_PDR, "Entity Auxiliary Names PDR"},
{PLDM_OEM_ENTITY_ID_PDR, "OEM Entity ID PDR"},
{PLDM_INTERRUPT_ASSOCIATION_PDR, "Interrupt Association PDR"},
{PLDM_EVENT_LOG_PDR, "PLDM Event Log PDR"},
{PLDM_PDR_FRU_RECORD_SET, "FRU Record Set PDR"},
{PLDM_OEM_DEVICE_PDR, "OEM Device PDR"},
{PLDM_OEM_PDR, "OEM PDR"},
};
static inline const std::map<uint8_t, std::string> setThermalTrip{
{PLDM_STATE_SET_THERMAL_TRIP_STATUS_NORMAL, "Normal"},
{PLDM_STATE_SET_THERMAL_TRIP_STATUS_THERMAL_TRIP, "Thermal Trip"}};
static inline const std::map<uint8_t, std::string> setIdentifyState{
{PLDM_STATE_SET_IDENTIFY_STATE_UNASSERTED, "Identify State Unasserted"},
{PLDM_STATE_SET_IDENTIFY_STATE_ASSERTED, "Identify State Asserted"}};
static inline const std::map<uint8_t, std::string> setBootProgressState{
{PLDM_STATE_SET_BOOT_PROG_STATE_NOT_ACTIVE, "Boot Not Active"},
{PLDM_STATE_SET_BOOT_PROG_STATE_COMPLETED, "Boot Completed"},
{PLDM_STATE_SET_BOOT_PROG_STATE_MEM_INITIALIZATION,
"Memory Initialization"},
{PLDM_STATE_SET_BOOT_PROG_STATE_SEC_PROC_INITIALIZATION,
"Secondary Processor(s) Initialization"},
{PLDM_STATE_SET_BOOT_PROG_STATE_PCI_RESORUCE_CONFIG,
"PCI Resource Configuration"},
{PLDM_STATE_SET_BOOT_PROG_STATE_STARTING_OP_SYS,
"Starting Operating System"},
{PLDM_STATE_SET_BOOT_PROG_STATE_BASE_BOARD_INITIALIZATION,
"Baseboard Initialization"},
{PLDM_STATE_SET_BOOT_PROG_STATE_PRIMARY_PROC_INITIALIZATION,
"Primary Processor Initialization"},
{PLDM_STATE_SET_BOOT_PROG_STATE_OSSTART, "OSStart"}};
static inline const std::map<uint8_t, std::string> setOpFaultStatus{
{PLDM_STATE_SET_OPERATIONAL_FAULT_STATUS_NORMAL, "Normal"},
{PLDM_STATE_SET_OPERATIONAL_FAULT_STATUS_ERROR, "Error"},
{PLDM_STATE_SET_OPERATIONAL_FAULT_STATUS_NON_RECOVERABLE_ERROR,
"Non Recoverable Error"}};
static inline const std::map<uint8_t, std::string> setSysPowerState{
{PLDM_STATE_SET_SYS_POWER_STATE_OFF_SOFT_GRACEFUL,
"Off-Soft Graceful"}};
static inline const std::map<uint8_t, std::string> setSWTerminationStatus{
{PLDM_SW_TERM_GRACEFUL_RESTART_REQUESTED,
"Graceful Restart Requested"}};
static inline const std::map<uint8_t, std::string> setAvailability{
{PLDM_STATE_SET_AVAILABILITY_REBOOTING, "Rebooting"}};
static inline const std::map<uint8_t, std::string> setHealthState{
{PLDM_STATE_SET_HEALTH_STATE_NORMAL, "Normal"},
{PLDM_STATE_SET_HEALTH_STATE_NON_CRITICAL, "Non-Critical"},
{PLDM_STATE_SET_HEALTH_STATE_CRITICAL, "Critical"},
{PLDM_STATE_SET_HEALTH_STATE_FATAL, "Fatal"},
{PLDM_STATE_SET_HEALTH_STATE_UPPER_NON_CRITICAL, "Upper Non-Critical"},
{PLDM_STATE_SET_HEALTH_STATE_LOWER_NON_CRITICAL, "Lower Non-Critical"},
{PLDM_STATE_SET_HEALTH_STATE_UPPER_CRITICAL, "Upper Critical"},
{PLDM_STATE_SET_HEALTH_STATE_LOWER_CRITICAL, "Lower Critical"},
{PLDM_STATE_SET_HEALTH_STATE_UPPER_FATAL, "Upper Fatal"},
{PLDM_STATE_SET_HEALTH_STATE_LOWER_FATAL, "Lower Fatal"}};
static inline const std::map<uint8_t, std::string>
setOperationalRunningState{
{PLDM_STATE_SET_OPERATIONAL_RUNNING_STATUS_STARTING, "Starting"},
{PLDM_STATE_SET_OPERATIONAL_RUNNING_STATUS_STOPPING, "Stopping"},
{PLDM_STATE_SET_OPERATIONAL_RUNNING_STATUS_STOPPED, "Stopped"},
{PLDM_STATE_SET_OPERATIONAL_RUNNING_STATUS_IN_SERVICE,
"In Service"},
{PLDM_STATE_SET_OPERATIONAL_RUNNING_STATUS_ABORTED, "Aborted"},
{PLDM_STATE_SET_OPERATIONAL_RUNNING_STATUS_DORMANT, "Dormant"}};
static inline const std::map<uint8_t, std::string> setPowerDeviceState{
{PLDM_STATE_SET_ACPI_DEVICE_POWER_STATE_UNKNOWN, "Unknown"},
{PLDM_STATE_SET_ACPI_DEVICE_POWER_STATE_FULLY_ON, "Fully-On"},
{PLDM_STATE_SET_ACPI_DEVICE_POWER_STATE_INTERMEDIATE_1,
"Intermediate State-1"},
{PLDM_STATE_SET_ACPI_DEVICE_POWER_STATE_INTERMEDIATE_2,
"Intermediate State-2"},
{PLDM_STATE_SET_ACPI_DEVICE_POWER_STATE_OFF, "Off"}};
static inline const std::map<uint16_t, const std::map<uint8_t, std::string>>
populatePStateMaps{
{PLDM_STATE_SET_THERMAL_TRIP, setThermalTrip},
{PLDM_STATE_SET_IDENTIFY_STATE, setIdentifyState},
{PLDM_STATE_SET_BOOT_PROGRESS, setBootProgressState},
{PLDM_STATE_SET_OPERATIONAL_FAULT_STATUS, setOpFaultStatus},
{PLDM_STATE_SET_SYSTEM_POWER_STATE, setSysPowerState},
{PLDM_STATE_SET_SW_TERMINATION_STATUS, setSWTerminationStatus},
{PLDM_STATE_SET_AVAILABILITY, setAvailability},
{PLDM_STATE_SET_HEALTH_STATE, setHealthState},
{PLDM_STATE_SET_OPERATIONAL_RUNNING_STATUS,
setOperationalRunningState},
{PLDM_STATE_SET_DEVICE_POWER_STATE, setPowerDeviceState},
};
const std::map<std::string, uint8_t> strToPdrType = {
{"terminuslocator", PLDM_TERMINUS_LOCATOR_PDR},
{"statesensor", PLDM_STATE_SENSOR_PDR},
{"sensorauxname", PLDM_SENSOR_AUXILIARY_NAMES_PDR},
{"numericeffecter", PLDM_NUMERIC_EFFECTER_PDR},
{"efffecterauxname", PLDM_EFFECTER_AUXILIARY_NAMES_PDR},
{"numericsensor", PLDM_NUMERIC_SENSOR_PDR},
{"compactnumericsensor", PLDM_COMPACT_NUMERIC_SENSOR_PDR},
{"stateeffecter", PLDM_STATE_EFFECTER_PDR},
{"entityassociation", PLDM_PDR_ENTITY_ASSOCIATION},
{"frurecord", PLDM_PDR_FRU_RECORD_SET},
// Add other types
};
bool isLogicalBitSet(const uint16_t entity_type)
{
return entity_type & 0x8000;
}
uint16_t getEntityTypeForLogicalEntity(const uint16_t logical_entity_type)
{
return logical_entity_type & 0x7FFF;
}
std::string getEntityName(pldm::pdr::EntityType type)
{
uint16_t entityNumber = type;
std::string entityName = "[Physical] ";
if (isLogicalBitSet(type))
{
entityName = "[Logical] ";
entityNumber = getEntityTypeForLogicalEntity(type);
}
try
{
return entityName + entityType.at(entityNumber);
}
catch (const std::out_of_range& e)
{
auto OemString =
std::to_string(static_cast<unsigned>(entityNumber));
if (type >= PLDM_OEM_ENTITY_TYPE_START &&
type <= PLDM_OEM_ENTITY_TYPE_END)
{
#ifdef OEM_IBM
if (OemIBMEntityType.contains(entityNumber))
{
return entityName + OemIBMEntityType.at(entityNumber) +
"(OEM)";
}
#endif
return entityName + OemString + "(OEM)";
}
return OemString;
}
}
std::string getStateSetName(uint16_t id)
{
auto typeString = std::to_string(id);
try
{
return stateSet.at(id) + "(" + typeString + ")";
}
catch (const std::out_of_range& e)
{
return typeString;
}
}
std::vector<std::string> getStateSetPossibleStateNames(
uint16_t stateId, const std::vector<uint8_t>& value)
{
std::vector<std::string> data{};
for (const auto& s : value)
{
std::map<uint8_t, std::string> stateNameMaps;
auto pstr = std::to_string(s);
#ifdef OEM_IBM
if (stateId >= PLDM_OEM_STATE_SET_ID_START &&
stateId < PLDM_OEM_STATE_SET_ID_END)
{
if (populateOemIBMStateMaps.contains(stateId))
{
const std::map<uint8_t, std::string> stateNames =
populateOemIBMStateMaps.at(stateId);
stateNameMaps.insert(stateNames.begin(), stateNames.end());
}
}
#endif
if (populatePStateMaps.contains(stateId))
{
const std::map<uint8_t, std::string> stateNames =
populatePStateMaps.at(stateId);
stateNameMaps.insert(stateNames.begin(), stateNames.end());
}
if (stateNameMaps.contains(s))
{
data.push_back(stateNameMaps.at(s) + "(" + pstr + ")");
}
else
{
data.push_back(pstr);
}
}
return data;
}
std::string getPDRType(uint8_t type)
{
auto typeString = std::to_string(type);
try
{
return pdrType.at(type);
}
catch (const std::out_of_range& e)
{
return typeString;
}
}
void printCommonPDRHeader(const pldm_pdr_hdr* hdr, ordered_json& output)
{
output["recordHandle"] = hdr->record_handle;
output["PDRHeaderVersion"] = unsigned(hdr->version);
output["PDRType"] = getPDRType(hdr->type);
output["recordChangeNumber"] = hdr->record_change_num;
output["dataLength"] = hdr->length;
}
std::vector<uint8_t> printPossibleStates(uint8_t possibleStatesSize,
const bitfield8_t* states)
{
uint8_t possibleStatesPos{};
std::vector<uint8_t> data{};
auto printStates = [&possibleStatesPos, &data](const bitfield8_t& val) {
std::stringstream pstates;
for (int i = 0; i < CHAR_BIT; i++)
{
if (val.byte & (1 << i))
{
pstates << (possibleStatesPos * CHAR_BIT + i);
data.push_back(
static_cast<uint8_t>(std::stoi(pstates.str())));
pstates.str("");
}
}
possibleStatesPos++;
};
std::for_each(states, states + possibleStatesSize, printStates);
return data;
}
void printStateSensorPDR(const uint8_t* data, ordered_json& output)
{
auto pdr = reinterpret_cast<const pldm_state_sensor_pdr*>(data);
output["PLDMTerminusHandle"] = pdr->terminus_handle;
output["sensorID"] = pdr->sensor_id;
output["entityType"] = getEntityName(pdr->entity_type);
output["entityInstanceNumber"] = pdr->entity_instance;
output["containerID"] = pdr->container_id;
output["sensorInit"] = sensorInit[pdr->sensor_init];
output["sensorAuxiliaryNamesPDR"] =
(pdr->sensor_auxiliary_names_pdr ? true : false);
output["compositeSensorCount"] = unsigned(pdr->composite_sensor_count);
auto statesPtr = pdr->possible_states;
auto compCount = pdr->composite_sensor_count;
while (compCount--)
{
auto state = reinterpret_cast<const state_sensor_possible_states*>(
statesPtr);
output.emplace(("stateSetID[" + std::to_string(compCount) + "]"),
getStateSetName(state->state_set_id));
output.emplace(
("possibleStatesSize[" + std::to_string(compCount) + "]"),
state->possible_states_size);
output.emplace(
("possibleStates[" + std::to_string(compCount) + "]"),
getStateSetPossibleStateNames(
state->state_set_id,
printPossibleStates(state->possible_states_size,
state->states)));
if (compCount)
{
statesPtr += sizeof(state_sensor_possible_states) +
state->possible_states_size - 1;
}
}
}
void printPDRFruRecordSet(uint8_t* data, ordered_json& output)
{
if (data == NULL)
{
return;
}
data += sizeof(pldm_pdr_hdr);
pldm_pdr_fru_record_set* pdr =
reinterpret_cast<pldm_pdr_fru_record_set*>(data);
if (!pdr)
{
std::cerr << "Failed to get the FRU record set PDR" << std::endl;
return;
}
output["PLDMTerminusHandle"] = unsigned(pdr->terminus_handle);
output["FRURecordSetIdentifier"] = unsigned(pdr->fru_rsi);
output["entityType"] = getEntityName(pdr->entity_type);
output["entityInstanceNumber"] = unsigned(pdr->entity_instance);
output["containerID"] = unsigned(pdr->container_id);
}
void printPDREntityAssociation(uint8_t* data, ordered_json& output)
{
const std::map<uint8_t, const char*> assocationType = {
{PLDM_ENTITY_ASSOCIAION_PHYSICAL, "Physical"},
{PLDM_ENTITY_ASSOCIAION_LOGICAL, "Logical"},
};
if (data == NULL)
{
return;
}
data += sizeof(pldm_pdr_hdr);
pldm_pdr_entity_association* pdr =
reinterpret_cast<pldm_pdr_entity_association*>(data);
if (!pdr)
{
std::cerr << "Failed to get the PDR eneity association"
<< std::endl;
return;
}
output["containerID"] = int(pdr->container_id);
if (assocationType.contains(pdr->association_type))
{
output["associationType"] =
assocationType.at(pdr->association_type);
}
else
{
std::cout << "Get associationType failed.\n";
}
output["containerEntityType"] =
getEntityName(pdr->container.entity_type);
output["containerEntityInstanceNumber"] =
int(pdr->container.entity_instance_num);
output["containerEntityContainerID"] =
int(pdr->container.entity_container_id);
output["containedEntityCount"] =
static_cast<unsigned>(pdr->num_children);
auto child = reinterpret_cast<pldm_entity*>(&pdr->children[0]);
for (int i = 0; i < pdr->num_children; ++i)
{
output.emplace("containedEntityType[" + std::to_string(i + 1) + "]",
getEntityName(child->entity_type));
output.emplace("containedEntityInstanceNumber[" +
std::to_string(i + 1) + "]",
unsigned(child->entity_instance_num));
output.emplace("containedEntityContainerID[" +
std::to_string(i + 1) + "]",
unsigned(child->entity_container_id));
++child;
}
}
/** @brief Format the Sensor/Effecter Aux Name PDR types to json output
*
* @param[in] data - reference to the Sensor/Effecter Aux Name PDR
* @param[out] output - PDRs data fields in Json format
*/
void printAuxNamePDR(uint8_t* data, ordered_json& output)
{
constexpr uint8_t nullTerminator = 0;
struct pldm_effecter_aux_name_pdr* auxNamePdr =
(struct pldm_effecter_aux_name_pdr*)data;
if (!auxNamePdr)
{
std::cerr << "Failed to get Aux Name PDR" << std::endl;
return;
}
std::string sPrefix = "effecter";
if (auxNamePdr->hdr.type == PLDM_SENSOR_AUXILIARY_NAMES_PDR)
{
sPrefix = "sensor";
}
output["terminusHandle"] = int(auxNamePdr->terminus_handle);
output[sPrefix + "Id"] = int(auxNamePdr->effecter_id);
output[sPrefix + "Count"] = int(auxNamePdr->effecter_count);
const uint8_t* ptr = auxNamePdr->effecter_names;
for (auto i : std::views::iota(0, (int)auxNamePdr->effecter_count))
{
const uint8_t nameStringCount = static_cast<uint8_t>(*ptr);
ptr += sizeof(uint8_t);
for (auto j : std::views::iota(0, (int)nameStringCount))
{
std::string nameLanguageTagKey =
sPrefix + std::to_string(j) + "_nameLanguageTag" +
std::to_string(i);
std::string entityAuxNameKey =
sPrefix + std::to_string(j) + "_entityAuxName" +
std::to_string(i);
std::string nameLanguageTag(reinterpret_cast<const char*>(ptr),
0, PLDM_STR_UTF_8_MAX_LEN);
ptr += nameLanguageTag.size() + sizeof(nullTerminator);
std::u16string u16NameString(
reinterpret_cast<const char16_t*>(ptr), 0,
PLDM_STR_UTF_16_MAX_LEN);
ptr += (u16NameString.size() + sizeof(nullTerminator)) *
sizeof(uint16_t);
std::transform(u16NameString.cbegin(), u16NameString.cend(),
u16NameString.begin(),
[](uint16_t utf16) { return be16toh(utf16); });
std::string nameString =
std::wstring_convert<std::codecvt_utf8_utf16<char16_t>,
char16_t>{}
.to_bytes(u16NameString);
output[nameLanguageTagKey] = nameLanguageTag;
output[entityAuxNameKey] = nameString;
}
}
}
void printNumericEffecterPDR(uint8_t* data, ordered_json& output)
{
struct pldm_numeric_effecter_value_pdr* pdr =
(struct pldm_numeric_effecter_value_pdr*)data;
if (!pdr)
{
std::cerr << "Failed to get numeric effecter PDR" << std::endl;
return;
}
output["PLDMTerminusHandle"] = int(pdr->terminus_handle);
output["effecterID"] = int(pdr->effecter_id);
output["entityType"] = int(pdr->entity_type);
output["entityInstanceNumber"] = int(pdr->entity_instance);
output["containerID"] = int(pdr->container_id);
output["effecterSemanticID"] = int(pdr->effecter_semantic_id);
output["effecterInit"] = unsigned(pdr->effecter_init);
output["effecterAuxiliaryNames"] =
(unsigned(pdr->effecter_auxiliary_names) ? true : false);
output["baseUnit"] = unsigned(pdr->base_unit);
output["unitModifier"] = unsigned(pdr->unit_modifier);
output["rateUnit"] = unsigned(pdr->rate_unit);
output["baseOEMUnitHandle"] = unsigned(pdr->base_oem_unit_handle);
output["auxUnit"] = unsigned(pdr->aux_unit);
output["auxUnitModifier"] = unsigned(pdr->aux_unit_modifier);
output["auxrateUnit"] = unsigned(pdr->aux_rate_unit);
output["auxOEMUnitHandle"] = unsigned(pdr->aux_oem_unit_handle);
output["isLinear"] = (unsigned(pdr->is_linear) ? true : false);
output["effecterDataSize"] = unsigned(pdr->effecter_data_size);
output["resolution"] = unsigned(pdr->resolution);
output["offset"] = unsigned(pdr->offset);
output["accuracy"] = unsigned(pdr->accuracy);
output["plusTolerance"] = unsigned(pdr->plus_tolerance);
output["minusTolerance"] = unsigned(pdr->minus_tolerance);
output["stateTransitionInterval"] =
unsigned(pdr->state_transition_interval);
output["TransitionInterval"] = unsigned(pdr->transition_interval);
switch (pdr->effecter_data_size)
{
case PLDM_EFFECTER_DATA_SIZE_UINT8:
output["maxSettable"] = unsigned(pdr->max_settable.value_u8);
output["minSettable"] = unsigned(pdr->min_settable.value_u8);
break;
case PLDM_EFFECTER_DATA_SIZE_SINT8:
output["maxSettable"] = unsigned(pdr->max_settable.value_s8);
output["minSettable"] = unsigned(pdr->min_settable.value_s8);
break;
case PLDM_EFFECTER_DATA_SIZE_UINT16:
output["maxSettable"] = unsigned(pdr->max_settable.value_u16);
output["minSettable"] = unsigned(pdr->min_settable.value_u16);
break;
case PLDM_EFFECTER_DATA_SIZE_SINT16:
output["maxSettable"] = unsigned(pdr->max_settable.value_s16);
output["minSettable"] = unsigned(pdr->min_settable.value_s16);
break;
case PLDM_EFFECTER_DATA_SIZE_UINT32:
output["maxSettable"] = unsigned(pdr->max_settable.value_u32);
output["minSettable"] = unsigned(pdr->min_settable.value_u32);
break;
case PLDM_EFFECTER_DATA_SIZE_SINT32:
output["maxSettable"] = unsigned(pdr->max_settable.value_s32);
output["minSettable"] = unsigned(pdr->min_settable.value_s32);
break;
default:
break;
}
output["rangeFieldFormat"] = unsigned(pdr->range_field_format);
output["rangeFieldSupport"] = unsigned(pdr->range_field_support.byte);
switch (pdr->range_field_format)
{
case PLDM_RANGE_FIELD_FORMAT_UINT8:
output["nominalValue"] = unsigned(pdr->nominal_value.value_u8);
output["normalMax"] = unsigned(pdr->normal_max.value_u8);
output["normalMin"] = unsigned(pdr->normal_min.value_u8);
output["ratedMax"] = unsigned(pdr->rated_max.value_u8);
output["ratedMin"] = unsigned(pdr->rated_min.value_u8);
break;
case PLDM_RANGE_FIELD_FORMAT_SINT8:
output["nominalValue"] = unsigned(pdr->nominal_value.value_s8);
output["normalMax"] = unsigned(pdr->normal_max.value_s8);
output["normalMin"] = unsigned(pdr->normal_min.value_s8);
output["ratedMax"] = unsigned(pdr->rated_max.value_s8);
output["ratedMin"] = unsigned(pdr->rated_min.value_s8);
break;
case PLDM_RANGE_FIELD_FORMAT_UINT16:
output["nominalValue"] = unsigned(pdr->nominal_value.value_u16);
output["normalMax"] = unsigned(pdr->normal_max.value_u16);
output["normalMin"] = unsigned(pdr->normal_min.value_u16);
output["ratedMax"] = unsigned(pdr->rated_max.value_u16);
output["ratedMin"] = unsigned(pdr->rated_min.value_u16);
break;
case PLDM_RANGE_FIELD_FORMAT_SINT16:
output["nominalValue"] = unsigned(pdr->nominal_value.value_s16);
output["normalMax"] = unsigned(pdr->normal_max.value_s16);
output["normalMin"] = unsigned(pdr->normal_min.value_s16);
output["ratedMax"] = unsigned(pdr->rated_max.value_s16);
output["ratedMin"] = unsigned(pdr->rated_min.value_s16);
break;
case PLDM_RANGE_FIELD_FORMAT_UINT32:
output["nominalValue"] = unsigned(pdr->nominal_value.value_u32);
output["normalMax"] = unsigned(pdr->normal_max.value_u32);
output["normalMin"] = unsigned(pdr->normal_min.value_u32);
output["ratedMax"] = unsigned(pdr->rated_max.value_u32);
output["ratedMin"] = unsigned(pdr->rated_min.value_u32);
break;
case PLDM_RANGE_FIELD_FORMAT_SINT32:
output["nominalValue"] = unsigned(pdr->nominal_value.value_s32);
output["normalMax"] = unsigned(pdr->normal_max.value_s32);
output["normalMin"] = unsigned(pdr->normal_min.value_s32);
output["ratedMax"] = unsigned(pdr->rated_max.value_s32);
output["ratedMin"] = unsigned(pdr->rated_min.value_s32);
break;
case PLDM_RANGE_FIELD_FORMAT_REAL32:
output["nominalValue"] = unsigned(pdr->nominal_value.value_f32);
output["normalMax"] = unsigned(pdr->normal_max.value_f32);
output["normalMin"] = unsigned(pdr->normal_min.value_f32);
output["ratedMax"] = unsigned(pdr->rated_max.value_f32);
output["ratedMin"] = unsigned(pdr->rated_min.value_f32);
break;
default:
break;
}
}
void printStateEffecterPDR(const uint8_t* data, ordered_json& output)
{
auto pdr = reinterpret_cast<const pldm_state_effecter_pdr*>(data);
output["PLDMTerminusHandle"] = pdr->terminus_handle;
output["effecterID"] = pdr->effecter_id;
output["entityType"] = getEntityName(pdr->entity_type);
output["entityInstanceNumber"] = pdr->entity_instance;
output["containerID"] = pdr->container_id;
output["effecterSemanticID"] = pdr->effecter_semantic_id;
output["effecterInit"] = effecterInit[pdr->effecter_init];
output["effecterDescriptionPDR"] =
(pdr->has_description_pdr ? true : false);
output["compositeEffecterCount"] =
unsigned(pdr->composite_effecter_count);
auto statesPtr = pdr->possible_states;
auto compEffCount = pdr->composite_effecter_count;
while (compEffCount--)
{
auto state =
reinterpret_cast<const state_effecter_possible_states*>(
statesPtr);
output.emplace(("stateSetID[" + std::to_string(compEffCount) + "]"),
getStateSetName(state->state_set_id));
output.emplace(
("possibleStatesSize[" + std::to_string(compEffCount) + "]"),
state->possible_states_size);
output.emplace(
("possibleStates[" + std::to_string(compEffCount) + "]"),
getStateSetPossibleStateNames(
state->state_set_id,
printPossibleStates(state->possible_states_size,
state->states)));
if (compEffCount)
{
statesPtr += sizeof(state_effecter_possible_states) +
state->possible_states_size - 1;
}
}
}
bool checkTerminusHandle(const uint8_t* data,
std::optional<uint16_t> terminusHandle)
{
struct pldm_pdr_hdr* pdr = (struct pldm_pdr_hdr*)data;
if (pdr->type == PLDM_TERMINUS_LOCATOR_PDR)
{
auto tlpdr =
reinterpret_cast<const pldm_terminus_locator_pdr*>(data);
if (tlpdr->terminus_handle != terminusHandle)
{
return true;
}
}
else if (pdr->type == PLDM_STATE_SENSOR_PDR)
{
auto sensor = reinterpret_cast<const pldm_state_sensor_pdr*>(data);
if (sensor->terminus_handle != terminusHandle)
{
return true;
}
}
else if (pdr->type == PLDM_NUMERIC_EFFECTER_PDR)
{
auto numericEffecter =
reinterpret_cast<const pldm_numeric_effecter_value_pdr*>(data);
if (numericEffecter->terminus_handle != terminusHandle)
{
return true;
}
}
else if (pdr->type == PLDM_STATE_EFFECTER_PDR)
{
auto stateEffecter =
reinterpret_cast<const pldm_state_effecter_pdr*>(data);
if (stateEffecter->terminus_handle != terminusHandle)
{
return true;
}
}
else if (pdr->type == PLDM_PDR_FRU_RECORD_SET)
{
data += sizeof(pldm_pdr_hdr);
auto fru = reinterpret_cast<const pldm_pdr_fru_record_set*>(data);
if (fru->terminus_handle != terminusHandle)
{
return true;
}
}
else
{
// Entity association PDRs does not have terminus handle
return true;
}
return false;
}
void printTerminusLocatorPDR(const uint8_t* data, ordered_json& output)
{
const std::array<std::string_view, 4> terminusLocatorType = {
"UID", "MCTP_EID", "SMBusRelative", "systemSoftware"};
auto pdr = reinterpret_cast<const pldm_terminus_locator_pdr*>(data);
output["PLDMTerminusHandle"] = pdr->terminus_handle;
output["validity"] = (pdr->validity ? "valid" : "notValid");
output["TID"] = unsigned(pdr->tid);
output["containerID"] = pdr->container_id;
output["terminusLocatorType"] =
terminusLocatorType[pdr->terminus_locator_type];
output["terminusLocatorValueSize"] =
unsigned(pdr->terminus_locator_value_size);
if (pdr->terminus_locator_type == PLDM_TERMINUS_LOCATOR_TYPE_MCTP_EID)
{
auto locatorValue =
reinterpret_cast<const pldm_terminus_locator_type_mctp_eid*>(
pdr->terminus_locator_value);
output["EID"] = unsigned(locatorValue->eid);
}
}
std::optional<uint16_t> getTerminusHandle(uint8_t* data,
std::optional<uint8_t> tid)
{
struct pldm_pdr_hdr* pdr = (struct pldm_pdr_hdr*)data;
if (pdr->type == PLDM_TERMINUS_LOCATOR_PDR)
{
auto pdr = reinterpret_cast<const pldm_terminus_locator_pdr*>(data);
if (pdr->tid == tid)
{
handleFound = true;
return pdr->terminus_handle;
}
}
return std::nullopt;
}
/** @brief Format the Numeric Sensor PDR types to json output
*
* @param[in] data - reference to the Numeric Sensor PDR
* @param[in] data_length - number of PDR data bytes
* @param[out] output - PDRs data fields in Json format
*/
void printNumericSensorPDR(const uint8_t* data, const uint16_t data_length,
ordered_json& output)
{
struct pldm_numeric_sensor_value_pdr pdr;
int rc =
decode_numeric_sensor_pdr_data(data, (size_t)data_length, &pdr);
if (rc != PLDM_SUCCESS)
{
std::cerr << "Failed to get numeric sensor PDR" << std::endl;
return;
}
output["PLDMTerminusHandle"] = pdr.terminus_handle;
output["sensorID"] = pdr.sensor_id;
output["entityType"] = getEntityName(pdr.entity_type);
output["entityInstanceNumber"] = pdr.entity_instance_num;
output["containerID"] = pdr.container_id;
output["sensorInit"] = pdr.sensor_init;
output["sensorAuxiliaryNamesPDR"] =
(pdr.sensor_auxiliary_names_pdr) ? true : false;
output["baseUnit"] = pdr.base_unit;
output["unitModifier"] = pdr.unit_modifier;
output["rateUnit"] = pdr.rate_unit;
output["baseOEMUnitHandle"] = pdr.base_oem_unit_handle;
output["auxUnit"] = pdr.aux_unit;
output["auxUnitModifier"] = pdr.aux_unit_modifier;
output["auxrateUnit"] = pdr.aux_rate_unit;
output["rel"] = pdr.rel;
output["auxOEMUnitHandle"] = pdr.aux_oem_unit_handle;
output["isLinear"] = (pdr.is_linear) ? true : false;
output["sensorDataSize"] = pdr.sensor_data_size;
output["resolution"] = pdr.resolution;
output["offset"] = pdr.offset;
output["accuracy"] = pdr.accuracy;
output["plusTolerance"] = pdr.plus_tolerance;
output["minusTolerance"] = pdr.minus_tolerance;
switch (pdr.sensor_data_size)
{
case PLDM_SENSOR_DATA_SIZE_UINT8:
output["hysteresis"] = pdr.hysteresis.value_u8;
output["maxReadable"] = pdr.max_readable.value_u8;
output["minReadable"] = pdr.min_readable.value_u8;
break;
case PLDM_SENSOR_DATA_SIZE_SINT8:
output["hysteresis"] = pdr.hysteresis.value_s8;
output["maxReadable"] = pdr.max_readable.value_s8;
output["minReadable"] = pdr.min_readable.value_s8;
break;
case PLDM_SENSOR_DATA_SIZE_UINT16:
output["hysteresis"] = pdr.hysteresis.value_u16;
output["maxReadable"] = pdr.max_readable.value_u16;
output["minReadable"] = pdr.min_readable.value_u16;
break;
case PLDM_SENSOR_DATA_SIZE_SINT16:
output["hysteresis"] = pdr.hysteresis.value_s16;
output["maxReadable"] = pdr.max_readable.value_s16;
output["minReadable"] = pdr.min_readable.value_s16;
break;
case PLDM_SENSOR_DATA_SIZE_UINT32:
output["hysteresis"] = pdr.hysteresis.value_u32;
output["maxReadable"] = pdr.max_readable.value_u32;
output["minReadable"] = pdr.min_readable.value_u32;
break;
case PLDM_SENSOR_DATA_SIZE_SINT32:
output["hysteresis"] = pdr.hysteresis.value_s32;
output["maxReadable"] = pdr.max_readable.value_s32;
output["minReadable"] = pdr.min_readable.value_s32;
break;
default:
break;
}
output["supportedThresholds"] = pdr.supported_thresholds.byte;
output["thresholAndHysteresisVolatility"] =
pdr.threshold_and_hysteresis_volatility.byte;
output["stateTransitionInterval"] = pdr.state_transition_interval;
output["updateInterval"] = pdr.update_interval;
output["rangeFieldFormat"] = pdr.range_field_format;
output["rangeFieldSupport"] = pdr.range_field_support.byte;
switch (pdr.range_field_format)
{
case PLDM_RANGE_FIELD_FORMAT_UINT8:
output["nominalValue"] = pdr.nominal_value.value_u8;
output["normalMax"] = pdr.normal_max.value_u8;
output["normalMin"] = pdr.normal_min.value_u8;
output["warningHigh"] = pdr.warning_high.value_u8;
output["warningLow"] = pdr.warning_low.value_u8;
output["criticalHigh"] = pdr.critical_high.value_u8;
output["criticalLow"] = pdr.critical_low.value_u8;
output["fatalHigh"] = pdr.fatal_high.value_u8;
output["fatalLeow"] = pdr.fatal_low.value_u8;
break;
case PLDM_RANGE_FIELD_FORMAT_SINT8:
output["nominalValue"] = pdr.nominal_value.value_s8;
output["normalMax"] = pdr.normal_max.value_s8;
output["normalMin"] = pdr.normal_min.value_s8;
output["warningHigh"] = pdr.warning_high.value_s8;
output["warningLow"] = pdr.warning_low.value_s8;
output["criticalHigh"] = pdr.critical_high.value_s8;
output["criticalLow"] = pdr.critical_low.value_s8;
output["fatalHigh"] = pdr.fatal_high.value_s8;
output["fatalLeow"] = pdr.fatal_low.value_s8;
break;
case PLDM_RANGE_FIELD_FORMAT_UINT16:
output["nominalValue"] = pdr.nominal_value.value_u16;
output["normalMax"] = pdr.normal_max.value_u16;
output["normalMin"] = pdr.normal_min.value_u16;
output["warningHigh"] = pdr.warning_high.value_u16;
output["warningLow"] = pdr.warning_low.value_u16;
output["criticalHigh"] = pdr.critical_high.value_u16;
output["criticalLow"] = pdr.critical_low.value_u16;
output["fatalHigh"] = pdr.fatal_high.value_u16;
output["fatalLeow"] = pdr.fatal_low.value_u16;
break;
case PLDM_RANGE_FIELD_FORMAT_SINT16:
output["nominalValue"] = pdr.nominal_value.value_s16;
output["normalMax"] = pdr.normal_max.value_s16;
output["normalMin"] = pdr.normal_min.value_s16;
output["warningHigh"] = pdr.warning_high.value_s16;
output["warningLow"] = pdr.warning_low.value_s16;
output["criticalHigh"] = pdr.critical_high.value_s16;
output["criticalLow"] = pdr.critical_low.value_s16;
output["fatalHigh"] = pdr.fatal_high.value_s16;
output["fatalLeow"] = pdr.fatal_low.value_s16;
break;
case PLDM_RANGE_FIELD_FORMAT_UINT32:
output["nominalValue"] = pdr.nominal_value.value_u32;
output["normalMax"] = pdr.normal_max.value_u32;
output["normalMin"] = pdr.normal_min.value_u32;
output["warningHigh"] = pdr.warning_high.value_u32;
output["warningLow"] = pdr.warning_low.value_u32;
output["criticalHigh"] = pdr.critical_high.value_u32;
output["criticalLow"] = pdr.critical_low.value_u32;
output["fatalHigh"] = pdr.fatal_high.value_u32;
output["fatalLeow"] = pdr.fatal_low.value_u32;
break;
case PLDM_RANGE_FIELD_FORMAT_SINT32:
output["nominalValue"] = pdr.nominal_value.value_s32;
output["normalMax"] = pdr.normal_max.value_s32;
output["normalMin"] = pdr.normal_min.value_s32;
output["warningHigh"] = pdr.warning_high.value_s32;
output["warningLow"] = pdr.warning_low.value_s32;
output["criticalHigh"] = pdr.critical_high.value_s32;
output["criticalLow"] = pdr.critical_low.value_s32;
output["fatalHigh"] = pdr.fatal_high.value_s32;
output["fatalLeow"] = pdr.fatal_low.value_s32;
break;
case PLDM_RANGE_FIELD_FORMAT_REAL32:
output["nominalValue"] = pdr.nominal_value.value_f32;
output["normalMax"] = pdr.normal_max.value_f32;
output["normalMin"] = pdr.normal_min.value_f32;
output["warningHigh"] = pdr.warning_high.value_f32;
output["warningLow"] = pdr.warning_low.value_f32;
output["criticalHigh"] = pdr.critical_high.value_f32;
output["criticalLow"] = pdr.critical_low.value_f32;
output["fatalHigh"] = pdr.fatal_high.value_f32;
output["fatalLeow"] = pdr.fatal_low.value_f32;
break;
default:
break;
}
}
/** @brief Format the Compact Numeric Sensor PDR types to json output
*
* @param[in] data - reference to the Compact Numeric Sensor PDR
* @param[out] output - PDRs data fields in Json format
*/
void printCompactNumericSensorPDR(const uint8_t* data, ordered_json& output)
{
struct pldm_compact_numeric_sensor_pdr* pdr =
(struct pldm_compact_numeric_sensor_pdr*)data;
if (!pdr)
{
std::cerr << "Failed to get compact numeric sensor PDR"
<< std::endl;
return;
}
output["PLDMTerminusHandle"] = int(pdr->terminus_handle);
output["sensorID"] = int(pdr->sensor_id);
output["entityType"] = getEntityName(pdr->entity_type);
output["entityInstanceNumber"] = int(pdr->entity_instance);
output["containerID"] = int(pdr->container_id);
output["sensorNameStringByteLength"] = int(pdr->sensor_name_length);
if (pdr->sensor_name_length == 0)
{
output["Name"] = std::format("PLDM_Device_TID{}_SensorId{}",
unsigned(pdr->terminus_handle),
unsigned(pdr->sensor_id));
}
else
{
std::string sTemp(reinterpret_cast<const char*>(pdr->sensor_name),
pdr->sensor_name_length);
output["Name"] = sTemp;
}
output["baseUnit"] = unsigned(pdr->base_unit);
output["unitModifier"] = signed(pdr->unit_modifier);
output["occurrenceRate"] = unsigned(pdr->occurrence_rate);
output["rangeFieldSupport"] = unsigned(pdr->range_field_support.byte);
if (pdr->range_field_support.bits.bit0)
{
output["warningHigh"] = int(pdr->warning_high);
}
if (pdr->range_field_support.bits.bit1)
{
output["warningLow"] = int(pdr->warning_low);
}
if (pdr->range_field_support.bits.bit2)
{
output["criticalHigh"] = int(pdr->critical_high);
}
if (pdr->range_field_support.bits.bit3)
{
output["criticalLow"] = int(pdr->critical_low);
}
if (pdr->range_field_support.bits.bit4)
{
output["fatalHigh"] = int(pdr->fatal_high);
}
if (pdr->range_field_support.bits.bit5)
{
output["fatalLow"] = int(pdr->fatal_low);
}
}
void printPDRMsg(uint32_t& nextRecordHndl, const uint16_t respCnt,
uint8_t* data, std::optional<uint16_t> terminusHandle)
{
if (data == NULL)
{
std::cerr << "Failed to get PDR message" << std::endl;
return;
}
ordered_json output;
output["nextRecordHandle"] = nextRecordHndl;
output["responseCount"] = respCnt;
struct pldm_pdr_hdr* pdr = (struct pldm_pdr_hdr*)data;
if (!pdr)
{
return;
}
if (!pdrRecType.empty())
{
// Need to return if the requested PDR type
// is not supported
if (!strToPdrType.contains(pdrRecType))
{
std::cerr << "PDR type '" << pdrRecType
<< "' is not supported or invalid\n";
// PDR type not supported, setting next record handle to
// 0 to avoid looping through all PDR records
nextRecordHndl = 0;
return;
}
// Do not print PDR record if the current record
// PDR type does not match with requested type
if (pdr->type != strToPdrType.at(pdrRecType))
{
return;
}
}
if (pdrTerminus.has_value())
{
if (checkTerminusHandle(data, terminusHandle))
{
std::cerr << "The Terminus handle doesn't match return"
<< std::endl;
return;
}
}
printCommonPDRHeader(pdr, output);
switch (pdr->type)
{
case PLDM_TERMINUS_LOCATOR_PDR:
printTerminusLocatorPDR(data, output);
break;
case PLDM_STATE_SENSOR_PDR:
printStateSensorPDR(data, output);
break;
case PLDM_NUMERIC_EFFECTER_PDR:
printNumericEffecterPDR(data, output);
break;
case PLDM_NUMERIC_SENSOR_PDR:
printNumericSensorPDR(data, respCnt, output);
break;
case PLDM_SENSOR_AUXILIARY_NAMES_PDR:
printAuxNamePDR(data, output);
break;
case PLDM_EFFECTER_AUXILIARY_NAMES_PDR:
printAuxNamePDR(data, output);
break;
case PLDM_STATE_EFFECTER_PDR:
printStateEffecterPDR(data, output);
break;
case PLDM_PDR_ENTITY_ASSOCIATION:
printPDREntityAssociation(data, output);
break;
case PLDM_PDR_FRU_RECORD_SET:
printPDRFruRecordSet(data, output);
break;
case PLDM_COMPACT_NUMERIC_SENSOR_PDR:
printCompactNumericSensorPDR(data, output);
break;
default:
break;
}
pldmtool::helper::DisplayInJson(output);
}
private:
bool optTIDSet = false;
uint32_t recordHandle;
bool allPDRs;
std::string pdrRecType;
std::optional<uint8_t> pdrTerminus;
std::optional<uint16_t> terminusHandle;
bool handleFound = false;
CLI::Option* getPDRGroupOption = nullptr;
uint32_t dataTransferHandle;
uint8_t operationFlag;
uint16_t requestCount;
uint16_t recordChangeNumber;
std::vector<uint8_t> recordData;
bool nextPartRequired;
};
class SetStateEffecter : public CommandInterface
{
public:
~SetStateEffecter() = default;
SetStateEffecter() = delete;
SetStateEffecter(const SetStateEffecter&) = delete;
SetStateEffecter(SetStateEffecter&&) = default;
SetStateEffecter& operator=(const SetStateEffecter&) = delete;
SetStateEffecter& operator=(SetStateEffecter&&) = delete;
// compositeEffecterCount(value: 0x01 to 0x08) * stateField(2)
static constexpr auto maxEffecterDataSize = 16;
// compositeEffecterCount(value: 0x01 to 0x08)
static constexpr auto minEffecterCount = 1;
static constexpr auto maxEffecterCount = 8;
explicit SetStateEffecter(const char* type, const char* name,
CLI::App* app) : CommandInterface(type, name, app)
{
app->add_option(
"-i, --id", effecterId,
"A handle that is used to identify and access the effecter")
->required();
app->add_option("-c, --count", effecterCount,
"The number of individual sets of effecter information")
->required();
app->add_option(
"-d,--data", effecterData,
"Set effecter state data\n"
"eg: requestSet0 effecterState0 noChange1 dummyState1 ...")
->required();
}
std::pair<int, std::vector<uint8_t>> createRequestMsg() override
{
std::vector<uint8_t> requestMsg(
sizeof(pldm_msg_hdr) + PLDM_SET_STATE_EFFECTER_STATES_REQ_BYTES);
auto request = reinterpret_cast<pldm_msg*>(requestMsg.data());
if (effecterCount > maxEffecterCount ||
effecterCount < minEffecterCount)
{
std::cerr << "Request Message Error: effecterCount size "
<< effecterCount << "is invalid\n";
auto rc = PLDM_ERROR_INVALID_DATA;
return {rc, requestMsg};
}
if (effecterData.size() > maxEffecterDataSize)
{
std::cerr << "Request Message Error: effecterData size "
<< effecterData.size() << "is invalid\n";
auto rc = PLDM_ERROR_INVALID_DATA;
return {rc, requestMsg};
}
auto stateField = parseEffecterData(effecterData, effecterCount);
if (!stateField)
{
std::cerr << "Failed to parse effecter data, effecterCount size "
<< effecterCount << "\n";
auto rc = PLDM_ERROR_INVALID_DATA;
return {rc, requestMsg};
}
auto rc = encode_set_state_effecter_states_req(
instanceId, effecterId, effecterCount, stateField->data(), request);
return {rc, requestMsg};
}
void parseResponseMsg(pldm_msg* responsePtr, size_t payloadLength) override
{
uint8_t completionCode = 0;
auto rc = decode_set_state_effecter_states_resp(
responsePtr, payloadLength, &completionCode);
if (rc != PLDM_SUCCESS || completionCode != PLDM_SUCCESS)
{
std::cerr << "Response Message Error: "
<< "rc=" << rc << ",cc=" << (int)completionCode << "\n";
return;
}
ordered_json data;
data["Response"] = "SUCCESS";
pldmtool::helper::DisplayInJson(data);
}
private:
uint16_t effecterId;
uint8_t effecterCount;
std::vector<uint8_t> effecterData;
};
class SetNumericEffecterValue : public CommandInterface
{
public:
~SetNumericEffecterValue() = default;
SetNumericEffecterValue() = delete;
SetNumericEffecterValue(const SetNumericEffecterValue&) = delete;
SetNumericEffecterValue(SetNumericEffecterValue&&) = default;
SetNumericEffecterValue& operator=(const SetNumericEffecterValue&) = delete;
SetNumericEffecterValue& operator=(SetNumericEffecterValue&&) = delete;
explicit SetNumericEffecterValue(const char* type, const char* name,
CLI::App* app) :
CommandInterface(type, name, app)
{
app->add_option(
"-i, --id", effecterId,
"A handle that is used to identify and access the effecter")
->required();
app->add_option("-s, --size", effecterDataSize,
"The bit width and format of the setting value for the "
"effecter. enum value: {uint8, sint8, uint16, sint16, "
"uint32, sint32}\n")
->required();
app->add_option("-d,--data", maxEffecterValue,
"The setting value of numeric effecter being "
"requested\n")
->required();
}
std::pair<int, std::vector<uint8_t>> createRequestMsg() override
{
std::vector<uint8_t> requestMsg(
sizeof(pldm_msg_hdr) +
PLDM_SET_NUMERIC_EFFECTER_VALUE_MIN_REQ_BYTES + 3);
uint8_t* effecterValue = (uint8_t*)&maxEffecterValue;
auto request = reinterpret_cast<pldm_msg*>(requestMsg.data());
size_t payload_length = PLDM_SET_NUMERIC_EFFECTER_VALUE_MIN_REQ_BYTES;
if (effecterDataSize == PLDM_EFFECTER_DATA_SIZE_UINT16 ||
effecterDataSize == PLDM_EFFECTER_DATA_SIZE_SINT16)
{
payload_length = PLDM_SET_NUMERIC_EFFECTER_VALUE_MIN_REQ_BYTES + 1;
}
if (effecterDataSize == PLDM_EFFECTER_DATA_SIZE_UINT32 ||
effecterDataSize == PLDM_EFFECTER_DATA_SIZE_SINT32)
{
payload_length = PLDM_SET_NUMERIC_EFFECTER_VALUE_MIN_REQ_BYTES + 3;
}
auto rc = encode_set_numeric_effecter_value_req(
0, effecterId, effecterDataSize, effecterValue, request,
payload_length);
return {rc, requestMsg};
}
void parseResponseMsg(pldm_msg* responsePtr, size_t payloadLength) override
{
uint8_t completionCode = 0;
auto rc = decode_set_numeric_effecter_value_resp(
responsePtr, payloadLength, &completionCode);
if (rc != PLDM_SUCCESS || completionCode != PLDM_SUCCESS)
{
std::cerr << "Response Message Error: "
<< "rc=" << rc << ",cc=" << (int)completionCode
<< std::endl;
return;
}
ordered_json data;
data["Response"] = "SUCCESS";
pldmtool::helper::DisplayInJson(data);
}
private:
uint16_t effecterId;
uint8_t effecterDataSize;
uint64_t maxEffecterValue;
};
class GetStateSensorReadings : public CommandInterface
{
public:
~GetStateSensorReadings() = default;
GetStateSensorReadings() = delete;
GetStateSensorReadings(const GetStateSensorReadings&) = delete;
GetStateSensorReadings(GetStateSensorReadings&&) = default;
GetStateSensorReadings& operator=(const GetStateSensorReadings&) = delete;
GetStateSensorReadings& operator=(GetStateSensorReadings&&) = delete;
explicit GetStateSensorReadings(const char* type, const char* name,
CLI::App* app) :
CommandInterface(type, name, app)
{
app->add_option(
"-i, --sensor_id", sensorId,
"Sensor ID that is used to identify and access the sensor")
->required();
app->add_option("-r, --rearm", sensorRearm,
"Each bit location in this field corresponds to a "
"particular sensor")
->required();
}
std::pair<int, std::vector<uint8_t>> createRequestMsg() override
{
std::vector<uint8_t> requestMsg(
sizeof(pldm_msg_hdr) + PLDM_GET_STATE_SENSOR_READINGS_REQ_BYTES);
auto request = reinterpret_cast<pldm_msg*>(requestMsg.data());
uint8_t reserved = 0;
bitfield8_t bf;
bf.byte = sensorRearm;
auto rc = encode_get_state_sensor_readings_req(instanceId, sensorId, bf,
reserved, request);
return {rc, requestMsg};
}
void parseResponseMsg(pldm_msg* responsePtr, size_t payloadLength) override
{
uint8_t completionCode = 0;
uint8_t compSensorCount = 0;
std::array<get_sensor_state_field, 8> stateField{};
auto rc = decode_get_state_sensor_readings_resp(
responsePtr, payloadLength, &completionCode, &compSensorCount,
stateField.data());
if (rc != PLDM_SUCCESS || completionCode != PLDM_SUCCESS)
{
std::cerr << "Response Message Error: "
<< "rc=" << rc << ",cc=" << (int)completionCode
<< std::endl;
return;
}
ordered_json output;
output["compositeSensorCount"] = (int)compSensorCount;
for (size_t i = 0; i < compSensorCount; i++)
{
if (sensorOpState.contains(stateField[i].sensor_op_state))
{
output.emplace(("sensorOpState[" + std::to_string(i) + "]"),
sensorOpState.at(stateField[i].sensor_op_state));
}
if (sensorPresState.contains(stateField[i].present_state))
{
output.emplace(("presentState[" + std::to_string(i) + "]"),
sensorPresState.at(stateField[i].present_state));
}
if (sensorPresState.contains(stateField[i].previous_state))
{
output.emplace(
("previousState[" + std::to_string(i) + "]"),
sensorPresState.at(stateField[i].previous_state));
}
if (sensorPresState.contains(stateField[i].event_state))
{
output.emplace(("eventState[" + std::to_string(i) + "]"),
sensorPresState.at(stateField[i].event_state));
}
}
pldmtool::helper::DisplayInJson(output);
}
private:
uint16_t sensorId;
uint8_t sensorRearm;
};
class GetSensorReading : public CommandInterface
{
public:
~GetSensorReading() = default;
GetSensorReading() = delete;
GetSensorReading(const GetSensorReading&) = delete;
GetSensorReading(GetSensorReading&&) = default;
GetSensorReading& operator=(const GetSensorReading&) = delete;
GetSensorReading& operator=(GetSensorReading&&) = delete;
explicit GetSensorReading(const char* type, const char* name,
CLI::App* app) : CommandInterface(type, name, app)
{
app->add_option(
"-i, --sensor_id", sensorId,
"Sensor ID that is used to identify and access the sensor")
->required();
app->add_option("-r, --rearm", rearm,
"Manually re-arm EventState after "
"responding to this request")
->required();
}
std::pair<int, std::vector<uint8_t>> createRequestMsg() override
{
std::vector<uint8_t> requestMsg(
sizeof(pldm_msg_hdr) + PLDM_GET_SENSOR_READING_REQ_BYTES);
auto request = reinterpret_cast<pldm_msg*>(requestMsg.data());
auto rc =
encode_get_sensor_reading_req(instanceId, sensorId, rearm, request);
return {rc, requestMsg};
}
void parseResponseMsg(pldm_msg* responsePtr, size_t payloadLength) override
{
uint8_t completionCode = 0;
uint8_t sensorDataSize = 0;
uint8_t sensorOperationalState = 0;
uint8_t sensorEventMessageEnable = 0;
uint8_t presentState = 0;
uint8_t previousState = 0;
uint8_t eventState = 0;
std::array<uint8_t, sizeof(uint32_t)>
presentReading{}; // maximum size for the present Value is uint32
// according to spec DSP0248
auto rc = decode_get_sensor_reading_resp(
responsePtr, payloadLength, &completionCode, &sensorDataSize,
&sensorOperationalState, &sensorEventMessageEnable, &presentState,
&previousState, &eventState, presentReading.data());
if (rc != PLDM_SUCCESS || completionCode != PLDM_SUCCESS)
{
std::cerr << "Response Message Error: "
<< "rc=" << rc << ",cc=" << (int)completionCode
<< std::endl;
return;
}
ordered_json output;
output["sensorDataSize"] =
getSensorState(sensorDataSize, &sensorDataSz);
output["sensorOperationalState"] =
getSensorState(sensorOperationalState, &sensorOpState);
output["sensorEventMessageEnable"] =
getSensorState(sensorEventMessageEnable, &sensorEventMsgEnable);
output["presentState"] = getSensorState(presentState, &sensorPresState);
output["previousState"] =
getSensorState(previousState, &sensorPresState);
output["eventState"] = getSensorState(eventState, &sensorPresState);
switch (sensorDataSize)
{
case PLDM_SENSOR_DATA_SIZE_UINT8:
{
output["presentReading"] =
*(reinterpret_cast<uint8_t*>(presentReading.data()));
break;
}
case PLDM_SENSOR_DATA_SIZE_SINT8:
{
output["presentReading"] =
*(reinterpret_cast<int8_t*>(presentReading.data()));
break;
}
case PLDM_SENSOR_DATA_SIZE_UINT16:
{
output["presentReading"] =
*(reinterpret_cast<uint16_t*>(presentReading.data()));
break;
}
case PLDM_SENSOR_DATA_SIZE_SINT16:
{
output["presentReading"] =
*(reinterpret_cast<int16_t*>(presentReading.data()));
break;
}
case PLDM_SENSOR_DATA_SIZE_UINT32:
{
output["presentReading"] =
*(reinterpret_cast<uint32_t*>(presentReading.data()));
break;
}
case PLDM_SENSOR_DATA_SIZE_SINT32:
{
output["presentReading"] =
*(reinterpret_cast<int32_t*>(presentReading.data()));
break;
}
default:
{
std::cerr << "Unknown Sensor Data Size : "
<< static_cast<int>(sensorDataSize) << std::endl;
break;
}
}
pldmtool::helper::DisplayInJson(output);
}
private:
uint16_t sensorId;
uint8_t rearm;
const std::map<uint8_t, std::string> sensorDataSz = {
{PLDM_SENSOR_DATA_SIZE_UINT8, "uint8"},
{PLDM_SENSOR_DATA_SIZE_SINT8, "uint8"},
{PLDM_SENSOR_DATA_SIZE_UINT16, "uint16"},
{PLDM_SENSOR_DATA_SIZE_SINT16, "uint16"},
{PLDM_SENSOR_DATA_SIZE_UINT32, "uint32"},
{PLDM_SENSOR_DATA_SIZE_SINT32, "uint32"}};
static inline const std::map<uint8_t, std::string> sensorEventMsgEnable{
{PLDM_NO_EVENT_GENERATION, "Sensor No Event Generation"},
{PLDM_EVENTS_DISABLED, "Sensor Events Disabled"},
{PLDM_EVENTS_ENABLED, "Sensor Events Enabled"},
{PLDM_OP_EVENTS_ONLY_ENABLED, "Sensor Op Events Only Enabled"},
{PLDM_STATE_EVENTS_ONLY_ENABLED, "Sensor State Events Only Enabled"}};
std::string getSensorState(uint8_t state,
const std::map<uint8_t, std::string>* cont)
{
auto typeString = std::to_string(state);
try
{
return cont->at(state);
}
catch (const std::out_of_range& e)
{
return typeString;
}
}
};
class GetStateEffecterStates : public CommandInterface
{
public:
~GetStateEffecterStates() = default;
GetStateEffecterStates() = delete;
GetStateEffecterStates(const GetStateEffecterStates&) = delete;
GetStateEffecterStates(GetStateEffecterStates&&) = default;
GetStateEffecterStates& operator=(const GetStateEffecterStates&) = delete;
GetStateEffecterStates& operator=(GetStateEffecterStates&&) = delete;
explicit GetStateEffecterStates(const char* type, const char* name,
CLI::App* app) :
CommandInterface(type, name, app)
{
app->add_option(
"-i, --effecter_id", effecter_id,
"Effecter ID that is used to identify and access the effecter")
->required();
}
std::pair<int, std::vector<uint8_t>> createRequestMsg() override
{
std::vector<uint8_t> requestMsg(
sizeof(pldm_msg_hdr) + PLDM_GET_STATE_EFFECTER_STATES_REQ_BYTES);
auto request = reinterpret_cast<pldm_msg*>(requestMsg.data());
auto rc = encode_get_state_effecter_states_req(
instanceId, effecter_id, request,
PLDM_GET_STATE_EFFECTER_STATES_REQ_BYTES);
return {rc, requestMsg};
}
void parseResponseMsg(pldm_msg* responsePtr, size_t payloadLength) override
{
struct pldm_get_state_effecter_states_resp resp;
auto rc = decode_get_state_effecter_states_resp(responsePtr,
payloadLength, &resp);
if (rc || resp.completion_code != PLDM_SUCCESS)
{
std::cerr << "Response Message Error: "
<< "rc=" << rc << ",cc="
<< static_cast<int>(resp.completion_code) << std::endl;
return;
}
ordered_json output;
auto comp_effecter_count = static_cast<int>(resp.comp_effecter_count);
output["compositeEffecterCount"] = comp_effecter_count;
for (auto i : std::views::iota(0, comp_effecter_count))
{
output[std::format("effecterOpState[{}])", i)] =
getEffecterOpState(resp.field[i].effecter_op_state);
output[std::format("pendingState[{}]", i)] =
resp.field[i].pending_state;
output[std::format("presentState[{}]", i)] =
resp.field[i].present_state;
}
pldmtool::helper::DisplayInJson(output);
}
private:
uint16_t effecter_id;
};
class GetNumericEffecterValue : public CommandInterface
{
public:
~GetNumericEffecterValue() = default;
GetNumericEffecterValue() = delete;
GetNumericEffecterValue(const GetNumericEffecterValue&) = delete;
GetNumericEffecterValue(GetNumericEffecterValue&&) = default;
GetNumericEffecterValue& operator=(const GetNumericEffecterValue&) = delete;
GetNumericEffecterValue& operator=(GetNumericEffecterValue&&) = delete;
explicit GetNumericEffecterValue(const char* type, const char* name,
CLI::App* app) :
CommandInterface(type, name, app)
{
app->add_option(
"-i, --effecter_id", effecterId,
"A handle that is used to identify and access the effecter")
->required();
}
std::pair<int, std::vector<uint8_t>> createRequestMsg() override
{
std::vector<uint8_t> requestMsg(
sizeof(pldm_msg_hdr) + PLDM_GET_NUMERIC_EFFECTER_VALUE_REQ_BYTES);
auto request = reinterpret_cast<pldm_msg*>(requestMsg.data());
auto rc = encode_get_numeric_effecter_value_req(instanceId, effecterId,
request);
return {rc, requestMsg};
}
void parseResponseMsg(pldm_msg* responsePtr, size_t payloadLength) override
{
uint8_t completionCode = 0;
uint8_t effecterDataSize = 0;
uint8_t effecterOperationalState = 0;
std::array<uint8_t, sizeof(uint32_t)>
pendingValue{}; // maximum size for the pending Value is uint32
// according to spec DSP0248
std::array<uint8_t, sizeof(uint32_t)>
presentValue{}; // maximum size for the present Value is uint32
// according to spec DSP0248
auto rc = decode_get_numeric_effecter_value_resp(
responsePtr, payloadLength, &completionCode, &effecterDataSize,
&effecterOperationalState, pendingValue.data(),
presentValue.data());
if (rc != PLDM_SUCCESS || completionCode != PLDM_SUCCESS)
{
std::cerr << "Response Message Error: "
<< "rc=" << rc << ",cc="
<< static_cast<int>(completionCode) << std::endl;
return;
}
ordered_json output;
output["effecterDataSize"] = static_cast<int>(effecterDataSize);
output["effecterOperationalState"] =
getEffecterOpState(effecterOperationalState);
switch (effecterDataSize)
{
case PLDM_EFFECTER_DATA_SIZE_UINT8:
{
output["pendingValue"] =
*(reinterpret_cast<uint8_t*>(pendingValue.data()));
output["presentValue"] =
*(reinterpret_cast<uint8_t*>(presentValue.data()));
break;
}
case PLDM_EFFECTER_DATA_SIZE_SINT8:
{
output["pendingValue"] =
*(reinterpret_cast<int8_t*>(pendingValue.data()));
output["presentValue"] =
*(reinterpret_cast<int8_t*>(presentValue.data()));
break;
}
case PLDM_EFFECTER_DATA_SIZE_UINT16:
{
output["pendingValue"] =
*(reinterpret_cast<uint16_t*>(pendingValue.data()));
output["presentValue"] =
*(reinterpret_cast<uint16_t*>(presentValue.data()));
break;
}
case PLDM_EFFECTER_DATA_SIZE_SINT16:
{
output["pendingValue"] =
*(reinterpret_cast<int16_t*>(pendingValue.data()));
output["presentValue"] =
*(reinterpret_cast<int16_t*>(presentValue.data()));
break;
}
case PLDM_EFFECTER_DATA_SIZE_UINT32:
{
output["pendingValue"] =
*(reinterpret_cast<uint32_t*>(pendingValue.data()));
output["presentValue"] =
*(reinterpret_cast<uint32_t*>(presentValue.data()));
break;
}
case PLDM_EFFECTER_DATA_SIZE_SINT32:
{
output["pendingValue"] =
*(reinterpret_cast<int32_t*>(pendingValue.data()));
output["presentValue"] =
*(reinterpret_cast<int32_t*>(presentValue.data()));
break;
}
default:
{
std::cerr << "Unknown Effecter Data Size : "
<< static_cast<int>(effecterDataSize) << std::endl;
break;
}
}
pldmtool::helper::DisplayInJson(output);
}
private:
uint16_t effecterId;
};
void registerCommand(CLI::App& app)
{
auto platform = app.add_subcommand("platform", "platform type command");
platform->require_subcommand(1);
auto getPDR =
platform->add_subcommand("GetPDR", "get platform descriptor records");
commands.push_back(std::make_unique<GetPDR>("platform", "getPDR", getPDR));
auto setStateEffecterStates = platform->add_subcommand(
"SetStateEffecterStates", "set effecter states");
commands.push_back(std::make_unique<SetStateEffecter>(
"platform", "setStateEffecterStates", setStateEffecterStates));
auto setNumericEffecterValue = platform->add_subcommand(
"SetNumericEffecterValue", "set the value for a PLDM Numeric Effecter");
commands.push_back(std::make_unique<SetNumericEffecterValue>(
"platform", "setNumericEffecterValue", setNumericEffecterValue));
auto getStateSensorReadings = platform->add_subcommand(
"GetStateSensorReadings", "get the state sensor readings");
commands.push_back(std::make_unique<GetStateSensorReadings>(
"platform", "getStateSensorReadings", getStateSensorReadings));
auto getNumericEffecterValue = platform->add_subcommand(
"GetNumericEffecterValue", "get the numeric effecter value");
commands.push_back(std::make_unique<GetNumericEffecterValue>(
"platform", "getNumericEffecterValue", getNumericEffecterValue));
auto getSensorReading = platform->add_subcommand(
"GetSensorReading", "get the numeric sensor reading");
commands.push_back(std::make_unique<GetSensorReading>(
"platform", "getSensorReading", getSensorReading));
auto getStateEffecterStates = platform->add_subcommand(
"GetStateEffecterStates", "get the state effecter states");
commands.push_back(std::make_unique<GetStateEffecterStates>(
"platform", "getStateEffecterStates", getStateEffecterStates));
}
void parseGetPDROption()
{
for (const auto& command : commands)
{
if (command.get()->getPLDMType() == "platform" &&
command.get()->getCommandName() == "getPDR")
{
auto getPDR = dynamic_cast<GetPDR*>(command.get());
getPDR->parseGetPDROptions();
}
}
}
} // namespace platform
} // namespace pldmtool