diff --git a/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBattery.json b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBattery.json
index 3c4b9c7..69fa714 100644
--- a/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBattery.json
+++ b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBattery.json
@@ -1,57 +1,57 @@
{
"StateOfCharge" : {
- "stateOfChargeValue" : -2.7310254E38,
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "stateOfChargeValue" : 2.90382E38,
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
},
"RemainingCapacity" : {
- "remainingCapacityValue" : -2.0573927E38,
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "remainingCapacityValue" : -2.2420748E38,
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
},
"NegativeEvents" : [ {
"negativeEvent" : "eOMtThyhVNLWUZNRcBaQKxI",
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
} ],
"TemperatureInformation" : {
"timeExtremeHighTemp" : -1.7976931348623157E308,
"timeExtremeLowTempCharging" : -1.7976931348623157E308,
"timeExtremeHighTempCharging" : -1.7976931348623157E308,
"timeExtremeLowTemp" : -1.7976931348623157E308,
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
},
"CurrentSelfDischargingRate" : {
- "currentSelfDischargingRateEntity" : 2.9489804E38,
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "currentSelfDischargingRateEntity" : 2.2290084E38,
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
},
"RemainingEnergy" : {
- "remainingEnergyalue" : -2.881114E38,
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "remainingEnergyalue" : -2.1403003E38,
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
},
"EnergyThroughput" : -1.7976931348623157E308,
"StateOfCertifiedEnergy" : {
- "stateOfCertifiedEnergyValue" : 9.297368E37,
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "stateOfCertifiedEnergyValue" : 3.4013927E38,
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
},
"EvolutionOfSelfDischarge" : {
- "evolutionOfSelfDischargeEntityValue" : -2.690689E37
+ "evolutionOfSelfDischargeEntityValue" : 1.1522828E38
},
"RemainingRoundTripEnergyEfficiency" : {
- "remainingRoundTripEnergyEfficiencyValue" : -1.4261269E38,
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "remainingRoundTripEnergyEfficiencyValue" : -1.0464361E38,
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
},
"CapacityThroughput" : {
- "capacityThroughputValue" : -1.8141585E38,
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "capacityThroughputValue" : -1.4908274E38,
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
},
"RemainingPowerCapability" : [ {
"remainingPowerCapabilityValue" : {
- "atSoC" : 1.5012699E38,
- "powerCapabilityAt" : 1.8237407E38,
- "rPCLastUpdated" : "2025-08-07T12:51:38.318+02:00"
+ "atSoC" : 7.9442395E37,
+ "powerCapabilityAt" : -4.9811915E37,
+ "rPCLastUpdated" : "2025-08-07T17:55:38.716+02:00"
},
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
} ],
"NumberOfFullCycles" : {
"numberOfFullCyclesValue" : -179769313486231570000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000,
- "lastUpdate" : "2025-08-07T12:51:38.318+02:00"
+ "lastUpdate" : "2025-08-07T17:55:38.716+02:00"
}
}
\ No newline at end of file
diff --git a/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.aas.json b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.aas.json
new file mode 100644
index 0000000..4854398
--- /dev/null
+++ b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.aas.json
@@ -0,0 +1,1473 @@
+{
+ "assetAdministrationShells" : [ {
+ "modelType" : "AssetAdministrationShell",
+ "assetInformation" : {
+ "assetKind" : "Type"
+ },
+ "submodels" : [ {
+ "keys" : [ {
+ "type" : "Submodel",
+ "value" : "urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt/submodel"
+ } ],
+ "type" : "ModelReference"
+ } ],
+ "administration" : { },
+ "id" : "urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt",
+ "description" : [ {
+ "language" : "en",
+ "text" : "defaultAdminShell"
+ } ],
+ "idShort" : "defaultAdminShell"
+ } ],
+ "conceptDescriptions" : [ {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Covers all battery lifetime relevant properties of a stationary battery energy storage system (BESS) or light means of transport (LMT) using a Battery Management System (BMS) conformant to DIN DKE SPEC 99100."
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "condition of stationary battery energy story system (BESS) or light means of transport (LMT) battery"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "ProductConditionIndustrialLmt"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt",
+ "category" : "APPLICATION_CLASS",
+ "description" : [ {
+ "language" : "en",
+ "text" : "Covers all battery lifetime relevant properties of a stationary battery energy storage system (BESS) or light means of transport (LMT) using a Battery Management System (BMS) conformant to DIN DKE SPEC 99100."
+ } ],
+ "displayName" : [ {
+ "language" : "en",
+ "text" : "condition of stationary battery energy story system (BESS) or light means of transport (LMT) battery"
+ } ],
+ "idShort" : "ProductConditionIndustrialLmt"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "The data attribute should be reported as measured for further potential processing. In addition, the normalisation by capacity may add a further useful value that ensures comparability among battery sizes.\n\nDIN DKE Spec 99100 chapter reference: 6.7.6.7"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "energyThroughput"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "energyThroughput"
+ } ],
+ "unit" : "kilowattHour"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#energyThroughput",
+ "idShort" : "energyThroughput"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "capacityThroughputValue"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "capacityThroughputValue"
+ } ],
+ "unit" : "ampereHour"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#capacityThroughputValue",
+ "idShort" : "capacityThroughputValue"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Timestamp for dynamic data attributes show the last update time."
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "lastUpdate"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "lastUpdate"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate",
+ "idShort" : "lastUpdate"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "The data attribute should be reported as measured for further potential processing. In addition, the normalisation by capacity may add a further useful value that ensures comparability among battery sizes.\n\nDIN DKE Spec 99100 chapter reference: 6.7.6.8"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "capacityThroughput"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "capacityThroughput"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#capacityThroughput",
+ "idShort" : "capacityThroughput"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "INTEGER_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "numberOfFullCyclesValue"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "numberOfFullCyclesValue"
+ } ],
+ "unit" : "cycle"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#numberOfFullCyclesValue",
+ "idShort" : "numberOfFullCyclesValue"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Number of (full) charging and discharging cycles.\n\nDIN DKE Spec 99100 chapter reference: 6.7.6.3"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "numberOfFullCycles"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "numberOfFullCycles"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#numberOfFullCycles",
+ "idShort" : "numberOfFullCycles"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "stateOfCertifiedEnergyValue"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "stateOfCertifiedEnergyValue"
+ } ],
+ "unit" : "percent"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#stateOfCertifiedEnergyValue",
+ "idShort" : "stateOfCertifiedEnergyValue"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Definition based on UNECE GTR 22: The measured or on-board UBE performance at a specific point in its lifetime, expressed as a percentage of the certified usable battery energy.\n\nDIN DKE Spec 99100 chapter reference: 6.7.2.7"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "SOCE"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "stateOfCertifiedEnergy"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#stateOfCertifiedEnergy",
+ "displayName" : [ {
+ "language" : "en",
+ "text" : "SOCE"
+ } ],
+ "idShort" : "stateOfCertifiedEnergy"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "remainingEnergyalue"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "remainingEnergyalue"
+ } ],
+ "unit" : "kilowattHour"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingEnergyalue",
+ "idShort" : "remainingEnergyalue"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Definition from UNECE GTR 22, applicable only to EVs.\nThe energy supplied by the battery from the beginning of the test procedure used for certification until the applicable break-off criterion of the test procedure used for certification is reached.\n\nDIN DKE Spec 99100 chapter reference: 6.7.2.6"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "remainingEnergy"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "remainingEnergy"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingEnergy",
+ "idShort" : "remainingEnergy"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "remainingCapacityValue"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "remainingCapacityValue"
+ } ],
+ "unit" : "kilowattHour"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingCapacityValue",
+ "idShort" : "remainingCapacityValue"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "The in-use data attribute on capacity, corresponding with the definition of rated capacity.\n\nDIN DKE Spec 99100 chapter reference: 6.7.2.3"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "remainingCapacity"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "remainingCapacity"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingCapacity",
+ "idShort" : "remainingCapacity"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "Negative events, such as accidents. No further definition provided by regulation."
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "negativeEvent"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#negativeEvent",
+ "displayName" : [ {
+ "language" : "en",
+ "text" : "Negative events, such as accidents. No further definition provided by regulation."
+ } ],
+ "idShort" : "negativeEvent"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "negativeEvents"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "negativeEvents"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#negativeEvents",
+ "idShort" : "negativeEvents"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Cumulated time spent above the given upper boundary of temperature."
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "timeExtremeHighTemp"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "timeExtremeHighTemp"
+ } ],
+ "unit" : "minuteUnitOfTime"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeHighTemp",
+ "idShort" : "timeExtremeHighTemp"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Cumulated time spent below the given lower boundary of temperature."
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "timeExtremeLowTemp"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "timeExtremeLowTemp"
+ } ],
+ "unit" : "minuteUnitOfTime"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeLowTemp",
+ "idShort" : "timeExtremeLowTemp"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Cumulated time spent above the given upper boundary of temperature during Charging."
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "timeExtremeHighTempCharging"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "timeExtremeHighTempCharging"
+ } ],
+ "unit" : "minuteUnitOfTime"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeHighTempCharging",
+ "idShort" : "timeExtremeHighTempCharging"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Cumulated time spent below the given lower boundary of temperature during charging."
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "timeExtremeLowTempCharging"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "timeExtremeLowTempCharging"
+ } ],
+ "unit" : "minuteUnitOfTime"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeLowTempCharging",
+ "idShort" : "timeExtremeLowTempCharging"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "The battery passport must include periodically recorded information on the operating environmental conditions, including temperature.\n\nDIN DKE Spec 99100 chapter reference: 6.7.7.5 - 8"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "temperatureInformation"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "temperatureInformation"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#temperatureInformation",
+ "idShort" : "temperatureInformation"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "rPCLastUpdated"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "rPCLastUpdated"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#rPCLastUpdated",
+ "idShort" : "rPCLastUpdated"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "atSoC"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "atSoC"
+ } ],
+ "unit" : "percent"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#atSoC",
+ "idShort" : "atSoC"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "powerCapabilityAt"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "powerCapabilityAt"
+ } ],
+ "unit" : "percent"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#powerCapabilityAt",
+ "idShort" : "powerCapabilityAt"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "remainingPowerCapabilityValue"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "remainingPowerCapabilityValue"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingPowerCapabilityValue",
+ "idShort" : "remainingPowerCapabilityValue"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "'- Original power capability (in Watts) and limits, with temperature range when relevant.\n- The amount of energy that a battery is capable to provide over a given period of time under reference conditions.\n- Power capability at 80% and 20% state of charge.\n\nDIN DKE Spec 99100 chapter reference: 6.7.3.3"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "remainingPowerCapability"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "remainingPowerCapability"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingPowerCapability",
+ "idShort" : "remainingPowerCapability"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "Energy round trip efficiency fade should be calculated using the initial round trip energy efficiency and remaining round trip energy efficiency following the formula below:\n\nRTEfade (x) = (1-RTE(x)) / RTEBOL �100\" %\" \nwhere\nx \tis the aging parameter (e.g. storage time, number of cycles, etc.);\nRTE(x) \tis the round trip energy efficiency at aging parameter x;\nRTEBOL \tis the round trip energy efficiency at begin of life.\n\nDIN DKE Spec 99100 chapter reference: 6.7.4.5"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "roundTripEfficiencyFade"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "roundTripEfficiencyFade"
+ } ],
+ "unit" : "percent"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#roundTripEfficiencyFade",
+ "idShort" : "roundTripEfficiencyFade"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "evolutionOfSelfDischargeEntityValue"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "evolutionOfSelfDischargeEntityValue"
+ } ],
+ "unit" : "percent"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#evolutionOfSelfDischargeEntityValue",
+ "idShort" : "evolutionOfSelfDischargeEntityValue"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "�Evolution of self-discharge rates� is the change of self-discharge over time and usage, as percentage calculated from the initial and current self-discharge rate.\n\nDIN DKE Spec 99100 chapter reference: 6.7.4.8"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "evolutionOfSelfDischarge"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "evolutionOfSelfDischarge"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#evolutionOfSelfDischarge",
+ "idShort" : "evolutionOfSelfDischarge"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "currentSelfDischargingRateEntity"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "currentSelfDischargingRateEntity"
+ } ],
+ "unit" : "percent"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#currentSelfDischargingRateEntity",
+ "idShort" : "currentSelfDischargingRateEntity"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "The current self-discharge rate is the change of the self-discharge rate in an idle state of the battery in reference conditions (temperature etc.) at aging parameter x, e.g. after a certain amount of storage time or, number of cycles.\n\nDIN DKE Spec 99100 chapter reference: 6.7.4.7"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "currentSelfDischargingRate"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "currentSelfDischargingRate"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#currentSelfDischargingRate",
+ "idShort" : "currentSelfDischargingRate"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "remainingRoundTripEnergyEfficiencyValue"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "remainingRoundTripEnergyEfficiencyValue"
+ } ],
+ "unit" : "percent"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingRoundTripEnergyEfficiencyValue",
+ "idShort" : "remainingRoundTripEnergyEfficiencyValue"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "The battery passport shall include information, where possible, about the remaining round trip energy efficiency as information on the state of health of the battery \n\nThe update frequency of remaining round trip energy efficiency should be aligned with the update frequency of round trip energy efficiency fade and should be provided upon change of the battery status.\n\nDIN DKE Spec 99100 chapter reference: 6.7.4.4"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "remainingRoundTripEnergyEfficiency"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "remainingRoundTripEnergyEfficiency"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingRoundTripEnergyEfficiency",
+ "idShort" : "remainingRoundTripEnergyEfficiency"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "REAL_MEASURE",
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "stateOfChargeValue"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "stateOfChargeValue"
+ } ],
+ "unit" : "percent"
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#stateOfChargeValue",
+ "idShort" : "stateOfChargeValue"
+ }, {
+ "modelType" : "ConceptDescription",
+ "embeddedDataSpecifications" : [ {
+ "dataSpecification" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "dataSpecificationContent" : {
+ "modelType" : "DataSpecificationIec61360",
+ "dataType" : "STRING",
+ "definition" : [ {
+ "language" : "en",
+ "text" : "The Battery Pass consortium proposes to change the definition to: \"available capacity in a battery expressed as a percentage of remaining capacity\" to reflect use of SoC in practice. \n\nDIN DKE Spec 99100 chapter reference: 6.7.2.8"
+ } ],
+ "preferredName" : [ {
+ "language" : "en",
+ "text" : "SoC"
+ } ],
+ "shortName" : [ {
+ "language" : "en",
+ "text" : "stateOfCharge"
+ } ]
+ }
+ } ],
+ "id" : "urn:samm:io.BatteryPass.Performance:1.2.0#stateOfCharge",
+ "displayName" : [ {
+ "language" : "en",
+ "text" : "SoC"
+ } ],
+ "idShort" : "stateOfCharge"
+ } ],
+ "submodels" : [ {
+ "modelType" : "Submodel",
+ "kind" : "Template",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "administration" : { },
+ "id" : "urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt/submodel",
+ "description" : [ {
+ "language" : "en",
+ "text" : "Covers all battery lifetime relevant properties of a stationary battery energy storage system (BESS) or light means of transport (LMT) using a Battery Management System (BMS) conformant to DIN DKE SPEC 99100."
+ } ],
+ "idShort" : "ProductConditionIndustrialLmt",
+ "submodelElements" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#energyThroughput"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:double",
+ "idShort" : "energyThroughput"
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "The data attribute should be reported as measured for further potential processing. In addition, the normalisation by capacity may add a further useful value that ensures comparability among battery sizes.\n\nDIN DKE Spec 99100 chapter reference: 6.7.6.8"
+ } ],
+ "idShort" : "capacityThroughput",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#capacityThroughputValue"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "capacityThroughputValue"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "Number of (full) charging and discharging cycles.\n\nDIN DKE Spec 99100 chapter reference: 6.7.6.3"
+ } ],
+ "idShort" : "numberOfFullCycles",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#numberOfFullCyclesValue"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:integer",
+ "idShort" : "numberOfFullCyclesValue"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "Definition based on UNECE GTR 22: The measured or on-board UBE performance at a specific point in its lifetime, expressed as a percentage of the certified usable battery energy.\n\nDIN DKE Spec 99100 chapter reference: 6.7.2.7"
+ } ],
+ "displayName" : [ {
+ "language" : "en",
+ "text" : "SOCE"
+ } ],
+ "idShort" : "stateOfCertifiedEnergy",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#stateOfCertifiedEnergyValue"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "stateOfCertifiedEnergyValue"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "Definition from UNECE GTR 22, applicable only to EVs.\nThe energy supplied by the battery from the beginning of the test procedure used for certification until the applicable break-off criterion of the test procedure used for certification is reached.\n\nDIN DKE Spec 99100 chapter reference: 6.7.2.6"
+ } ],
+ "idShort" : "remainingEnergy",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingEnergyalue"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "remainingEnergyalue"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "The in-use data attribute on capacity, corresponding with the definition of rated capacity.\n\nDIN DKE Spec 99100 chapter reference: 6.7.2.3"
+ } ],
+ "idShort" : "remainingCapacity",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingCapacityValue"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "remainingCapacityValue"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ }, {
+ "modelType" : "SubmodelElementList",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#NegativeEvents"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "idShort" : "negativeEvents",
+ "orderRelevant" : false,
+ "typeValueListElement" : "SubmodelElementCollection",
+ "value" : [ {
+ "modelType" : "SubmodelElementCollection",
+ "idShort" : "negativeEvents",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#negativeEvent"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:string",
+ "displayName" : [ {
+ "language" : "en",
+ "text" : "Negative events, such as accidents. No further definition provided by regulation."
+ } ],
+ "idShort" : "negativeEvent"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ } ]
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "The battery passport must include periodically recorded information on the operating environmental conditions, including temperature.\n\nDIN DKE Spec 99100 chapter reference: 6.7.7.5 - 8"
+ } ],
+ "idShort" : "temperatureInformation",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeHighTemp"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:double",
+ "idShort" : "timeExtremeHighTemp"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeLowTemp"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:double",
+ "idShort" : "timeExtremeLowTemp"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeHighTempCharging"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:double",
+ "idShort" : "timeExtremeHighTempCharging"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeLowTempCharging"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:double",
+ "idShort" : "timeExtremeLowTempCharging"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ }, {
+ "modelType" : "SubmodelElementList",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#RemainingPowerCapability"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "description" : [ {
+ "language" : "en",
+ "text" : "'- Original power capability (in Watts) and limits, with temperature range when relevant.\n- The amount of energy that a battery is capable to provide over a given period of time under reference conditions.\n- Power capability at 80% and 20% state of charge.\n\nDIN DKE Spec 99100 chapter reference: 6.7.3.3"
+ } ],
+ "idShort" : "remainingPowerCapability",
+ "orderRelevant" : false,
+ "typeValueListElement" : "SubmodelElementCollection",
+ "value" : [ {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "'- Original power capability (in Watts) and limits, with temperature range when relevant.\n- The amount of energy that a battery is capable to provide over a given period of time under reference conditions.\n- Power capability at 80% and 20% state of charge.\n\nDIN DKE Spec 99100 chapter reference: 6.7.3.3"
+ } ],
+ "idShort" : "remainingPowerCapability",
+ "value" : [ {
+ "modelType" : "SubmodelElementCollection",
+ "idShort" : "remainingPowerCapabilityValue",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#rPCLastUpdated"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "rPCLastUpdated"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#atSoC"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "atSoC"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#powerCapabilityAt"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "powerCapabilityAt"
+ } ]
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ } ]
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#roundTripEfficiencyFade"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "roundTripEfficiencyFade"
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "�Evolution of self-discharge rates� is the change of self-discharge over time and usage, as percentage calculated from the initial and current self-discharge rate.\n\nDIN DKE Spec 99100 chapter reference: 6.7.4.8"
+ } ],
+ "idShort" : "evolutionOfSelfDischarge",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#evolutionOfSelfDischargeEntityValue"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "evolutionOfSelfDischargeEntityValue"
+ } ]
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "The current self-discharge rate is the change of the self-discharge rate in an idle state of the battery in reference conditions (temperature etc.) at aging parameter x, e.g. after a certain amount of storage time or, number of cycles.\n\nDIN DKE Spec 99100 chapter reference: 6.7.4.7"
+ } ],
+ "idShort" : "currentSelfDischargingRate",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#currentSelfDischargingRateEntity"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "currentSelfDischargingRateEntity"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "The battery passport shall include information, where possible, about the remaining round trip energy efficiency as information on the state of health of the battery \n\nThe update frequency of remaining round trip energy efficiency should be aligned with the update frequency of round trip energy efficiency fade and should be provided upon change of the battery status.\n\nDIN DKE Spec 99100 chapter reference: 6.7.4.4"
+ } ],
+ "idShort" : "remainingRoundTripEnergyEfficiency",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#remainingRoundTripEnergyEfficiencyValue"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "remainingRoundTripEnergyEfficiencyValue"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ }, {
+ "modelType" : "SubmodelElementCollection",
+ "description" : [ {
+ "language" : "en",
+ "text" : "The Battery Pass consortium proposes to change the definition to: \"available capacity in a battery expressed as a percentage of remaining capacity\" to reflect use of SoC in practice. \n\nDIN DKE Spec 99100 chapter reference: 6.7.2.8"
+ } ],
+ "displayName" : [ {
+ "language" : "en",
+ "text" : "SoC"
+ } ],
+ "idShort" : "stateOfCharge",
+ "value" : [ {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#stateOfChargeValue"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:float",
+ "idShort" : "stateOfChargeValue"
+ }, {
+ "modelType" : "Property",
+ "semanticId" : {
+ "keys" : [ {
+ "type" : "GlobalReference",
+ "value" : "urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate"
+ } ],
+ "type" : "ExternalReference"
+ },
+ "valueType" : "xs:dateTime",
+ "idShort" : "lastUpdate"
+ } ]
+ } ]
+ } ]
+}
\ No newline at end of file
diff --git a/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.aas.xml b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.aas.xml
new file mode 100644
index 0000000..c0bc3d6
--- /dev/null
+++ b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.aas.xml
@@ -0,0 +1,2019 @@
+
+
+
+
+ defaultAdminShell
+
+
+ en
+ defaultAdminShell
+
+
+
+ urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt
+
+ Type
+
+
+
+ ModelReference
+
+
+ Submodel
+ urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt/submodel
+
+
+
+
+
+
+
+
+ ProductConditionIndustrialLmt
+
+
+ en
+ Covers all battery lifetime relevant properties of a stationary battery energy storage system (BESS) or light means of transport (LMT) using a Battery Management System (BMS) conformant to DIN DKE SPEC 99100.
+
+
+
+ urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt/submodel
+ Template
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt
+
+
+
+
+
+ energyThroughput
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#energyThroughput
+
+
+
+ xs:double
+
+
+ capacityThroughput
+
+
+ en
+ The data attribute should be reported as measured for further potential processing. In addition, the normalisation by capacity may add a further useful value that ensures comparability among battery sizes.
+
+DIN DKE Spec 99100 chapter reference: 6.7.6.8
+
+
+
+
+ capacityThroughputValue
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#capacityThroughputValue
+
+
+
+ xs:float
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+ numberOfFullCycles
+
+
+ en
+ Number of (full) charging and discharging cycles.
+
+DIN DKE Spec 99100 chapter reference: 6.7.6.3
+
+
+
+
+ numberOfFullCyclesValue
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#numberOfFullCyclesValue
+
+
+
+ xs:integer
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+ stateOfCertifiedEnergy
+
+
+ en
+ SOCE
+
+
+
+
+ en
+ Definition based on UNECE GTR 22: The measured or on-board UBE performance at a specific point in its lifetime, expressed as a percentage of the certified usable battery energy.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.7
+
+
+
+
+ stateOfCertifiedEnergyValue
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#stateOfCertifiedEnergyValue
+
+
+
+ xs:float
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+ remainingEnergy
+
+
+ en
+ Definition from UNECE GTR 22, applicable only to EVs.
+The energy supplied by the battery from the beginning of the test procedure used for certification until the applicable break-off criterion of the test procedure used for certification is reached.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.6
+
+
+
+
+ remainingEnergyalue
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingEnergyalue
+
+
+
+ xs:float
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+ remainingCapacity
+
+
+ en
+ The in-use data attribute on capacity, corresponding with the definition of rated capacity.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.3
+
+
+
+
+ remainingCapacityValue
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingCapacityValue
+
+
+
+ xs:float
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+ negativeEvents
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#NegativeEvents
+
+
+
+ false
+ SubmodelElementCollection
+
+
+ negativeEvents
+
+
+ negativeEvent
+
+
+ en
+ Negative events, such as accidents. No further definition provided by regulation.
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#negativeEvent
+
+
+
+ xs:string
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+
+
+ temperatureInformation
+
+
+ en
+ The battery passport must include periodically recorded information on the operating environmental conditions, including temperature.
+
+DIN DKE Spec 99100 chapter reference: 6.7.7.5 - 8
+
+
+
+
+ timeExtremeHighTemp
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeHighTemp
+
+
+
+ xs:double
+
+
+ timeExtremeLowTemp
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeLowTemp
+
+
+
+ xs:double
+
+
+ timeExtremeHighTempCharging
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeHighTempCharging
+
+
+
+ xs:double
+
+
+ timeExtremeLowTempCharging
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeLowTempCharging
+
+
+
+ xs:double
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+ remainingPowerCapability
+
+
+ en
+ '- Original power capability (in Watts) and limits, with temperature range when relevant.
+- The amount of energy that a battery is capable to provide over a given period of time under reference conditions.
+- Power capability at 80% and 20% state of charge.
+
+DIN DKE Spec 99100 chapter reference: 6.7.3.3
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#RemainingPowerCapability
+
+
+
+ false
+ SubmodelElementCollection
+
+
+ remainingPowerCapability
+
+
+ en
+ '- Original power capability (in Watts) and limits, with temperature range when relevant.
+- The amount of energy that a battery is capable to provide over a given period of time under reference conditions.
+- Power capability at 80% and 20% state of charge.
+
+DIN DKE Spec 99100 chapter reference: 6.7.3.3
+
+
+
+
+ remainingPowerCapabilityValue
+
+
+ rPCLastUpdated
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#rPCLastUpdated
+
+
+
+ xs:dateTime
+
+
+ atSoC
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#atSoC
+
+
+
+ xs:float
+
+
+ powerCapabilityAt
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#powerCapabilityAt
+
+
+
+ xs:float
+
+
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+
+
+ roundTripEfficiencyFade
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#roundTripEfficiencyFade
+
+
+
+ xs:float
+
+
+ evolutionOfSelfDischarge
+
+
+ en
+ �Evolution of self-discharge rates� is the change of self-discharge over time and usage, as percentage calculated from the initial and current self-discharge rate.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.8
+
+
+
+
+ evolutionOfSelfDischargeEntityValue
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#evolutionOfSelfDischargeEntityValue
+
+
+
+ xs:float
+
+
+
+
+ currentSelfDischargingRate
+
+
+ en
+ The current self-discharge rate is the change of the self-discharge rate in an idle state of the battery in reference conditions (temperature etc.) at aging parameter x, e.g. after a certain amount of storage time or, number of cycles.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.7
+
+
+
+
+ currentSelfDischargingRateEntity
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#currentSelfDischargingRateEntity
+
+
+
+ xs:float
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+ remainingRoundTripEnergyEfficiency
+
+
+ en
+ The battery passport shall include information, where possible, about the remaining round trip energy efficiency as information on the state of health of the battery
+
+The update frequency of remaining round trip energy efficiency should be aligned with the update frequency of round trip energy efficiency fade and should be provided upon change of the battery status.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.4
+
+
+
+
+ remainingRoundTripEnergyEfficiencyValue
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingRoundTripEnergyEfficiencyValue
+
+
+
+ xs:float
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+ stateOfCharge
+
+
+ en
+ SoC
+
+
+
+
+ en
+ The Battery Pass consortium proposes to change the definition to: "available capacity in a battery expressed as a percentage of remaining capacity" to reflect use of SoC in practice.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.8
+
+
+
+
+ stateOfChargeValue
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#stateOfChargeValue
+
+
+
+ xs:float
+
+
+ lastUpdate
+
+ ExternalReference
+
+
+ GlobalReference
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ xs:dateTime
+
+
+
+
+
+
+
+
+ APPLICATION_CLASS
+ ProductConditionIndustrialLmt
+
+
+ en
+ condition of stationary battery energy story system (BESS) or light means of transport (LMT) battery
+
+
+
+
+ en
+ Covers all battery lifetime relevant properties of a stationary battery energy storage system (BESS) or light means of transport (LMT) using a Battery Management System (BMS) conformant to DIN DKE SPEC 99100.
+
+
+ urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ condition of stationary battery energy story system (BESS) or light means of transport (LMT) battery
+
+
+
+
+ en
+ ProductConditionIndustrialLmt
+
+
+
+
+ en
+ Covers all battery lifetime relevant properties of a stationary battery energy storage system (BESS) or light means of transport (LMT) using a Battery Management System (BMS) conformant to DIN DKE SPEC 99100.
+
+
+
+
+
+
+
+
+ energyThroughput
+ urn:samm:io.BatteryPass.Performance:1.2.0#energyThroughput
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ energyThroughput
+
+
+
+
+ en
+ energyThroughput
+
+
+ kilowattHour
+ REAL_MEASURE
+
+
+ en
+ The data attribute should be reported as measured for further potential processing. In addition, the normalisation by capacity may add a further useful value that ensures comparability among battery sizes.
+
+DIN DKE Spec 99100 chapter reference: 6.7.6.7
+
+
+
+
+
+
+
+
+ capacityThroughputValue
+ urn:samm:io.BatteryPass.Performance:1.2.0#capacityThroughputValue
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ capacityThroughputValue
+
+
+
+
+ en
+ capacityThroughputValue
+
+
+ ampereHour
+ REAL_MEASURE
+
+
+
+
+
+
+ lastUpdate
+ urn:samm:io.BatteryPass.Performance:1.2.0#lastUpdate
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ lastUpdate
+
+
+
+
+ en
+ lastUpdate
+
+
+ STRING
+
+
+ en
+ Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+ capacityThroughput
+ urn:samm:io.BatteryPass.Performance:1.2.0#capacityThroughput
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ capacityThroughput
+
+
+
+
+ en
+ capacityThroughput
+
+
+ STRING
+
+
+ en
+ The data attribute should be reported as measured for further potential processing. In addition, the normalisation by capacity may add a further useful value that ensures comparability among battery sizes.
+
+DIN DKE Spec 99100 chapter reference: 6.7.6.8
+
+
+
+
+
+
+
+
+ numberOfFullCyclesValue
+ urn:samm:io.BatteryPass.Performance:1.2.0#numberOfFullCyclesValue
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ numberOfFullCyclesValue
+
+
+
+
+ en
+ numberOfFullCyclesValue
+
+
+ cycle
+ INTEGER_MEASURE
+
+
+
+
+
+
+ numberOfFullCycles
+ urn:samm:io.BatteryPass.Performance:1.2.0#numberOfFullCycles
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ numberOfFullCycles
+
+
+
+
+ en
+ numberOfFullCycles
+
+
+ STRING
+
+
+ en
+ Number of (full) charging and discharging cycles.
+
+DIN DKE Spec 99100 chapter reference: 6.7.6.3
+
+
+
+
+
+
+
+
+ stateOfCertifiedEnergyValue
+ urn:samm:io.BatteryPass.Performance:1.2.0#stateOfCertifiedEnergyValue
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ stateOfCertifiedEnergyValue
+
+
+
+
+ en
+ stateOfCertifiedEnergyValue
+
+
+ percent
+ REAL_MEASURE
+
+
+
+
+
+
+ stateOfCertifiedEnergy
+
+
+ en
+ SOCE
+
+
+ urn:samm:io.BatteryPass.Performance:1.2.0#stateOfCertifiedEnergy
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ SOCE
+
+
+
+
+ en
+ stateOfCertifiedEnergy
+
+
+ STRING
+
+
+ en
+ Definition based on UNECE GTR 22: The measured or on-board UBE performance at a specific point in its lifetime, expressed as a percentage of the certified usable battery energy.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.7
+
+
+
+
+
+
+
+
+ remainingEnergyalue
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingEnergyalue
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ remainingEnergyalue
+
+
+
+
+ en
+ remainingEnergyalue
+
+
+ kilowattHour
+ REAL_MEASURE
+
+
+
+
+
+
+ remainingEnergy
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingEnergy
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ remainingEnergy
+
+
+
+
+ en
+ remainingEnergy
+
+
+ STRING
+
+
+ en
+ Definition from UNECE GTR 22, applicable only to EVs.
+The energy supplied by the battery from the beginning of the test procedure used for certification until the applicable break-off criterion of the test procedure used for certification is reached.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.6
+
+
+
+
+
+
+
+
+ remainingCapacityValue
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingCapacityValue
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ remainingCapacityValue
+
+
+
+
+ en
+ remainingCapacityValue
+
+
+ kilowattHour
+ REAL_MEASURE
+
+
+
+
+
+
+ remainingCapacity
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingCapacity
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ remainingCapacity
+
+
+
+
+ en
+ remainingCapacity
+
+
+ STRING
+
+
+ en
+ The in-use data attribute on capacity, corresponding with the definition of rated capacity.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.3
+
+
+
+
+
+
+
+
+ negativeEvent
+
+
+ en
+ Negative events, such as accidents. No further definition provided by regulation.
+
+
+ urn:samm:io.BatteryPass.Performance:1.2.0#negativeEvent
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ Negative events, such as accidents. No further definition provided by regulation.
+
+
+
+
+ en
+ negativeEvent
+
+
+ STRING
+
+
+
+
+
+
+ negativeEvents
+ urn:samm:io.BatteryPass.Performance:1.2.0#negativeEvents
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ negativeEvents
+
+
+
+
+ en
+ negativeEvents
+
+
+ STRING
+
+
+
+
+
+
+ timeExtremeHighTemp
+ urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeHighTemp
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ timeExtremeHighTemp
+
+
+
+
+ en
+ timeExtremeHighTemp
+
+
+ minuteUnitOfTime
+ REAL_MEASURE
+
+
+ en
+ Cumulated time spent above the given upper boundary of temperature.
+
+
+
+
+
+
+
+
+ timeExtremeLowTemp
+ urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeLowTemp
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ timeExtremeLowTemp
+
+
+
+
+ en
+ timeExtremeLowTemp
+
+
+ minuteUnitOfTime
+ REAL_MEASURE
+
+
+ en
+ Cumulated time spent below the given lower boundary of temperature.
+
+
+
+
+
+
+
+
+ timeExtremeHighTempCharging
+ urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeHighTempCharging
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ timeExtremeHighTempCharging
+
+
+
+
+ en
+ timeExtremeHighTempCharging
+
+
+ minuteUnitOfTime
+ REAL_MEASURE
+
+
+ en
+ Cumulated time spent above the given upper boundary of temperature during Charging.
+
+
+
+
+
+
+
+
+ timeExtremeLowTempCharging
+ urn:samm:io.BatteryPass.Performance:1.2.0#timeExtremeLowTempCharging
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ timeExtremeLowTempCharging
+
+
+
+
+ en
+ timeExtremeLowTempCharging
+
+
+ minuteUnitOfTime
+ REAL_MEASURE
+
+
+ en
+ Cumulated time spent below the given lower boundary of temperature during charging.
+
+
+
+
+
+
+
+
+ temperatureInformation
+ urn:samm:io.BatteryPass.Performance:1.2.0#temperatureInformation
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ temperatureInformation
+
+
+
+
+ en
+ temperatureInformation
+
+
+ STRING
+
+
+ en
+ The battery passport must include periodically recorded information on the operating environmental conditions, including temperature.
+
+DIN DKE Spec 99100 chapter reference: 6.7.7.5 - 8
+
+
+
+
+
+
+
+
+ rPCLastUpdated
+ urn:samm:io.BatteryPass.Performance:1.2.0#rPCLastUpdated
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ rPCLastUpdated
+
+
+
+
+ en
+ rPCLastUpdated
+
+
+ STRING
+
+
+
+
+
+
+ atSoC
+ urn:samm:io.BatteryPass.Performance:1.2.0#atSoC
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ atSoC
+
+
+
+
+ en
+ atSoC
+
+
+ percent
+ REAL_MEASURE
+
+
+
+
+
+
+ powerCapabilityAt
+ urn:samm:io.BatteryPass.Performance:1.2.0#powerCapabilityAt
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ powerCapabilityAt
+
+
+
+
+ en
+ powerCapabilityAt
+
+
+ percent
+ REAL_MEASURE
+
+
+
+
+
+
+ remainingPowerCapabilityValue
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingPowerCapabilityValue
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ remainingPowerCapabilityValue
+
+
+
+
+ en
+ remainingPowerCapabilityValue
+
+
+ STRING
+
+
+
+
+
+
+ remainingPowerCapability
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingPowerCapability
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ remainingPowerCapability
+
+
+
+
+ en
+ remainingPowerCapability
+
+
+ STRING
+
+
+ en
+ '- Original power capability (in Watts) and limits, with temperature range when relevant.
+- The amount of energy that a battery is capable to provide over a given period of time under reference conditions.
+- Power capability at 80% and 20% state of charge.
+
+DIN DKE Spec 99100 chapter reference: 6.7.3.3
+
+
+
+
+
+
+
+
+ roundTripEfficiencyFade
+ urn:samm:io.BatteryPass.Performance:1.2.0#roundTripEfficiencyFade
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ roundTripEfficiencyFade
+
+
+
+
+ en
+ roundTripEfficiencyFade
+
+
+ percent
+ REAL_MEASURE
+
+
+ en
+ Energy round trip efficiency fade should be calculated using the initial round trip energy efficiency and remaining round trip energy efficiency following the formula below:
+
+RTEfade (x) = (1-RTE(x)) / RTEBOL �100" %"
+where
+x is the aging parameter (e.g. storage time, number of cycles, etc.);
+RTE(x) is the round trip energy efficiency at aging parameter x;
+RTEBOL is the round trip energy efficiency at begin of life.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.5
+
+
+
+
+
+
+
+
+ evolutionOfSelfDischargeEntityValue
+ urn:samm:io.BatteryPass.Performance:1.2.0#evolutionOfSelfDischargeEntityValue
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ evolutionOfSelfDischargeEntityValue
+
+
+
+
+ en
+ evolutionOfSelfDischargeEntityValue
+
+
+ percent
+ REAL_MEASURE
+
+
+
+
+
+
+ evolutionOfSelfDischarge
+ urn:samm:io.BatteryPass.Performance:1.2.0#evolutionOfSelfDischarge
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ evolutionOfSelfDischarge
+
+
+
+
+ en
+ evolutionOfSelfDischarge
+
+
+ STRING
+
+
+ en
+ �Evolution of self-discharge rates� is the change of self-discharge over time and usage, as percentage calculated from the initial and current self-discharge rate.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.8
+
+
+
+
+
+
+
+
+ currentSelfDischargingRateEntity
+ urn:samm:io.BatteryPass.Performance:1.2.0#currentSelfDischargingRateEntity
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ currentSelfDischargingRateEntity
+
+
+
+
+ en
+ currentSelfDischargingRateEntity
+
+
+ percent
+ REAL_MEASURE
+
+
+
+
+
+
+ currentSelfDischargingRate
+ urn:samm:io.BatteryPass.Performance:1.2.0#currentSelfDischargingRate
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ currentSelfDischargingRate
+
+
+
+
+ en
+ currentSelfDischargingRate
+
+
+ STRING
+
+
+ en
+ The current self-discharge rate is the change of the self-discharge rate in an idle state of the battery in reference conditions (temperature etc.) at aging parameter x, e.g. after a certain amount of storage time or, number of cycles.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.7
+
+
+
+
+
+
+
+
+ remainingRoundTripEnergyEfficiencyValue
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingRoundTripEnergyEfficiencyValue
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ remainingRoundTripEnergyEfficiencyValue
+
+
+
+
+ en
+ remainingRoundTripEnergyEfficiencyValue
+
+
+ percent
+ REAL_MEASURE
+
+
+
+
+
+
+ remainingRoundTripEnergyEfficiency
+ urn:samm:io.BatteryPass.Performance:1.2.0#remainingRoundTripEnergyEfficiency
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ remainingRoundTripEnergyEfficiency
+
+
+
+
+ en
+ remainingRoundTripEnergyEfficiency
+
+
+ STRING
+
+
+ en
+ The battery passport shall include information, where possible, about the remaining round trip energy efficiency as information on the state of health of the battery
+
+The update frequency of remaining round trip energy efficiency should be aligned with the update frequency of round trip energy efficiency fade and should be provided upon change of the battery status.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.4
+
+
+
+
+
+
+
+
+ stateOfChargeValue
+ urn:samm:io.BatteryPass.Performance:1.2.0#stateOfChargeValue
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ stateOfChargeValue
+
+
+
+
+ en
+ stateOfChargeValue
+
+
+ percent
+ REAL_MEASURE
+
+
+
+
+
+
+ stateOfCharge
+
+
+ en
+ SoC
+
+
+ urn:samm:io.BatteryPass.Performance:1.2.0#stateOfCharge
+
+
+
+ ExternalReference
+
+
+ GlobalReference
+ https://admin-shell.io/DataSpecificationTemplates/DataSpecificationIec61360/3/0
+
+
+
+
+
+
+
+ en
+ SoC
+
+
+
+
+ en
+ stateOfCharge
+
+
+ STRING
+
+
+ en
+ The Battery Pass consortium proposes to change the definition to: "available capacity in a battery expressed as a percentage of remaining capacity" to reflect use of SoC in practice.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.8
+
+
+
+
+
+
+
+
+
diff --git a/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.aasx b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.aasx
new file mode 100644
index 0000000..3254947
Binary files /dev/null and b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.aasx differ
diff --git a/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.html b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.html
new file mode 100644
index 0000000..39d0bb0
--- /dev/null
+++ b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.html
@@ -0,0 +1,3313 @@
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Documentation condition of stationary battery energy story system (BESS) or light means of transport (LMT) battery
+
+
+
+
+
+
+
Aspect Model condition of stationary battery energy story system (BESS) or light means of transport (LMT) battery
+
urn:samm:io.admin-shell.idta.batterypass.product_condition:1.0.0#ProductConditionIndustrialLmt
+
+
+
+
+
+
+
+
+
+
+
+ Covers all battery lifetime relevant properties of a stationary battery energy storage system (BESS) or light means of transport (LMT) using a Battery Management System (BMS) conformant to DIN DKE SPEC 99100.
+
+
+
+
+
Overview
+
+
+
+
+
+
+
+
+
+
+
+
+
Properties
+
+
+
+
+
+
+
+
+
Definition based on UNECE GTR 22: The measured or on-board UBE performance at a specific point in its lifetime, expressed as a percentage of the certified usable battery energy.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.7
+
+
+
Name
+
stateOfCertifiedEnergy
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
StateOfCertifiedEnergy
+
+
+
+
+
+
+
+
+
+
+
The Battery Pass consortium proposes to change the definition to: "available capacity in a battery expressed as a percentage of remaining capacity" to reflect use of SoC in practice.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.8
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
StateOfCharge
+
+
+
+
+
+
+
+
+
+
+
The data attribute should be reported as measured for further potential processing. In addition, the normalisation by capacity may add a further useful value that ensures comparability among battery sizes.
+
+DIN DKE Spec 99100 chapter reference: 6.7.6.8
+
+
+
Name
+
capacityThroughput
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
CapacityThroughput
+
+
+
+
+
+
+
+
+
+
+
The current self-discharge rate is the change of the self-discharge rate in an idle state of the battery in reference conditions (temperature etc.) at aging parameter x, e.g. after a certain amount of storage time or, number of cycles.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.7
+
+
+
Name
+
currentSelfDischargingRate
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
CurrentSelfDischargingRate
+
+
+
+
+
+
+
+
+
+
+
The data attribute should be reported as measured for further potential processing. In addition, the normalisation by capacity may add a further useful value that ensures comparability among battery sizes.
+
+DIN DKE Spec 99100 chapter reference: 6.7.6.7
+
+
+
Name
+
energyThroughput
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ kilowatt hour
+
+ -
+ Symbol kW·h
+
+ -
+ Code KWH
+
+ -
+ Conversion factor 3.6 × 10⁶ J
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
EnergyThroughput
+
+
+
+
+
+
+
+
+
+
+
�Evolution of self-discharge rates� is the change of self-discharge over time and usage, as percentage calculated from the initial and current self-discharge rate.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.8
+
+
+
Name
+
evolutionOfSelfDischarge
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
EvolutionOfSelfDischarge
+
+
+
+
+
+
+
+
+
+
+
+
+
Name
+
negativeEvents
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
NegativeEvents
+
+
+
+
+
+
+
+
+
+
+
Number of (full) charging and discharging cycles.
+
+DIN DKE Spec 99100 chapter reference: 6.7.6.3
+
+
+
Name
+
numberOfFullCycles
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
NumberOfFullCycles
+
+
+
+
+
+
+
+
remainingCapacity
+
+
+
The in-use data attribute on capacity, corresponding with the definition of rated capacity.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.3
+
+
+
Name
+
remainingCapacity
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
RemainingCapacity
+
+
+
+
+
+
+
+
remainingEnergy
+
+
+
Definition from UNECE GTR 22, applicable only to EVs.
+The energy supplied by the battery from the beginning of the test procedure used for certification until the applicable break-off criterion of the test procedure used for certification is reached.
+
+DIN DKE Spec 99100 chapter reference: 6.7.2.6
+
+
+
Name
+
remainingEnergy
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
RemainingEnergy
+
+
+
+
+
+
+
+
remainingPowerCapability
+
+
+
'- Original power capability (in Watts) and limits, with temperature range when relevant.
+- The amount of energy that a battery is capable to provide over a given period of time under reference conditions.
+- Power capability at 80% and 20% state of charge.
+
+DIN DKE Spec 99100 chapter reference: 6.7.3.3
+
+
+
Name
+
remainingPowerCapability
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
RemainingPowerCapability
+
+
+
+
+
+
+
+
remainingRoundTripEnergyEfficiency
+
+
+
The battery passport shall include information, where possible, about the remaining round trip energy efficiency as information on the state of health of the battery
+
+The update frequency of remaining round trip energy efficiency should be aligned with the update frequency of round trip energy efficiency fade and should be provided upon change of the battery status.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.4
+
+
+
Name
+
remainingRoundTripEnergyEfficiency
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
RemainingRoundTripEnergyEfficiency
+
+
+
+
+
+
+
+
+
+
+
Energy round trip efficiency fade should be calculated using the initial round trip energy efficiency and remaining round trip energy efficiency following the formula below:
+
+RTEfade (x) = (1-RTE(x)) / RTEBOL �100" %"
+where
+x is the aging parameter (e.g. storage time, number of cycles, etc.);
+RTE(x) is the round trip energy efficiency at aging parameter x;
+RTEBOL is the round trip energy efficiency at begin of life.
+
+DIN DKE Spec 99100 chapter reference: 6.7.4.5
+
+
+
Name
+
roundTripEfficiencyFade
+
+
+
+
+
+
Characteristic
+
+
+
+
+
Art. 10: Annex IV Part A (4) (only definition); Article 14: Annex VII Part A (3)
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
RoundTripEfficiencyFade
+
+
+
+
+
+
+
+
+
+
+
The battery passport must include periodically recorded information on the operating environmental conditions, including temperature.
+
+DIN DKE Spec 99100 chapter reference: 6.7.7.5 - 8
+
+
+
Name
+
temperatureInformation
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
TemperatureInformation
+
+
+
+
+
+
+
+
+
+
+
Entities
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Name
+
capacityThroughputValue
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ ampere hour
+
+ -
+ Symbol A·h
+
+ -
+ Code AMH
+
+ -
+ Conversion factor 3.6 × 10³ C
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
capacityThroughputValue
+
+
+
+
+
+
+
+
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Name
+
currentSelfDischargingRateEntity
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
currentSelfDischargingRateEntity
+
+
+
+
+
+
+
+
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Name
+
evolutionOfSelfDischargeEntityValue
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
evolutionOfSelfDischargeEntityValue
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
negativeEvent
+
+
+
+
+
+
+
+
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Name
+
numberOfFullCyclesValue
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ cycle
+
+ -
+ Code B7
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
numberOfFullCyclesValue
+
+
+
+
+
+
+
+
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Name
+
powerCapabilityAt
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
powerCapabilityAt
+
+
+
+
+
+
+
+
RemainingCapacityEntity
+
+
+
+
+
+
+
Properties
+
+
+
+
+
remainingCapacityValue
+
+
+
+
+
Name
+
remainingCapacityValue
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ kilowatt hour
+
+ -
+ Symbol kW·h
+
+ -
+ Code KWH
+
+ -
+ Conversion factor 3.6 × 10⁶ J
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
remainingCapacityValue
+
+
+
+
+
+
+
+
lastUpdate
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
RemainingEnergyEntity
+
+
+
+
+
+
+
Properties
+
+
+
+
+
remainingEnergyalue
+
+
+
+
+
Name
+
remainingEnergyalue
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ kilowatt hour
+
+ -
+ Symbol kW·h
+
+ -
+ Code KWH
+
+ -
+ Conversion factor 3.6 × 10⁶ J
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
remainingEnergyalue
+
+
+
+
+
+
+
+
lastUpdate
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
RemainingPowerCapabilityDynamicAt
+
+ Extends
PowerCapabilityAtEntity
+
+
+
+
+
+
Properties
+
+
+
+
+
rPCLastUpdated
+
+
+
+
+
Name
+
rPCLastUpdated
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
rPCLastUpdated
+
+
+
+
+
+
+
+
atSoC
+
+
+
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
powerCapabilityAt
+
+
+
+
+
Name
+
powerCapabilityAt
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
powerCapabilityAt
+
+
+
+
+
+
+
+
RemainingPowerCapabilityEntity
+
+
+
+
+
+
+
Properties
+
+
+
+
+
remainingPowerCapabilityValue
+
+
+
+
+
Name
+
remainingPowerCapabilityValue
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
remainingPowerCapabilityValue
+
+
+
+
+
+
+
+
lastUpdate
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
RemainingRoundTripEnergyEfficiencyEntity
+
+
+
+
+
+
+
Properties
+
+
+
+
+
remainingRoundTripEnergyEfficiencyValue
+
+
+
+
+
Name
+
remainingRoundTripEnergyEfficiencyValue
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
remainingRoundTripEnergyEfficiencyValue
+
+
+
+
+
+
+
+
lastUpdate
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Name
+
stateOfCertifiedEnergyValue
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
stateOfCertifiedEnergyValue
+
+
+
+
+
+
+
+
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Name
+
stateOfChargeValue
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ percent
+
+ -
+ Symbol %
+
+ -
+ Code P1
+
+ -
+ Conversion factor 1 × 10⁻²
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
stateOfChargeValue
+
+
+
+
+
+
+
+
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Cumulated time spent above the given upper boundary of temperature.
+
+
+
Name
+
timeExtremeHighTemp
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ minute [unit of time]
+
+ -
+ Symbol min
+
+ -
+ Code MIN
+
+ -
+ Conversion factor 60 s
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
timeExtremeHighTemp
+
+
+
+
+
+
+
+
+
+
+
Cumulated time spent below the given lower boundary of temperature.
+
+
+
Name
+
timeExtremeLowTemp
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ minute [unit of time]
+
+ -
+ Symbol min
+
+ -
+ Code MIN
+
+ -
+ Conversion factor 60 s
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
timeExtremeLowTemp
+
+
+
+
+
+
+
+
+
+
+
Cumulated time spent above the given upper boundary of temperature during Charging.
+
+
+
Name
+
timeExtremeHighTempCharging
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ minute [unit of time]
+
+ -
+ Symbol min
+
+ -
+ Code MIN
+
+ -
+ Conversion factor 60 s
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
timeExtremeHighTempCharging
+
+
+
+
+
+
+
+
+
+
+
Cumulated time spent below the given lower boundary of temperature during charging.
+
+
+
Name
+
timeExtremeLowTempCharging
+
+
+
+
+
+
Characteristic
+
+
+
+
+
+
+
+
+ -
+ minute [unit of time]
+
+ -
+ Symbol min
+
+ -
+ Code MIN
+
+ -
+ Conversion factor 60 s
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
timeExtremeLowTempCharging
+
+
+
+
+
+
+
+
+
+
+
Timestamp for dynamic data attributes show the last update time.
+
+
+
+
+
+
+
+
+
+
+
+
+
+
Payload key
+
lastUpdate
+
+
+
+
+
+
+
+
+
Third party licenses
+
+
Panzoom
+
The MIT License (MIT)
+
+Copyright (c) 2016 - 2021 Andrei Kashcha
+
+Permission is hereby granted, free of charge, to any person obtaining a copy
+of this software and associated documentation files (the "Software"), to deal
+in the Software without restriction, including without limitation the rights
+to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
+copies of the Software, and to permit persons to whom the Software is
+furnished to do so, subject to the following conditions:
+
+The above copyright notice and this permission notice shall be included in all
+copies or substantial portions of the Software.
+
+THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
+IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
+FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
+AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
+LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
+OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
+SOFTWARE.
+
Tailwind
+
The MIT License (MIT)
+
+Copyright (c) Adam Wathan
+Copyright (c) Jonathan Reinink
+
+Permission is hereby granted, free of charge, to any person obtaining a copy
+of this software and associated documentation files (the "Software"), to deal
+in the Software without restriction, including without limitation the rights
+to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
+copies of the Software, and to permit persons to whom the Software is
+furnished to do so, subject to the following conditions:
+
+The above copyright notice and this permission notice shall be included in all
+copies or substantial portions of the Software.
+
+THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
+IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
+FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
+AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
+LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
+OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
+SOFTWARE.
+
+
Tocbot
+
The MIT License (MIT)
+
+Copyright (c) 2016 Tim Scanlin
+
+Permission is hereby granted, free of charge, to any person obtaining a copy
+of this software and associated documentation files (the "Software"), to deal
+in the Software without restriction, including without limitation the rights
+to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
+copies of the Software, and to permit persons to whom the Software is
+furnished to do so, subject to the following conditions:
+
+The above copyright notice and this permission notice shall be included in all
+copies or substantial portions of the Software.
+
+THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
+IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
+FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
+AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
+LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
+OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
+SOFTWARE.
+
+
+
+
+
+
+
+
\ No newline at end of file
diff --git a/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.json b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.json
new file mode 100644
index 0000000..86e837c
--- /dev/null
+++ b/io.admin-shell.idta.batterypass.product_condition/1.0.0/gen/ProductConditionBatteryStationaryLMT.json
@@ -0,0 +1,58 @@
+{
+ "StateOfCharge" : {
+ "stateOfChargeValue" : -1.1988915E38,
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ },
+ "RemainingCapacity" : {
+ "remainingCapacityValue" : -1.4068672E38,
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ },
+ "RoundTripEfficiencyFade" : -8.3055296E37,
+ "NegativeEvents" : [ {
+ "negativeEvent" : "eOMtThyhVNLWUZNRcBaQKxI",
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ } ],
+ "TemperatureInformation" : {
+ "timeExtremeHighTemp" : -1.7976931348623157E308,
+ "timeExtremeLowTempCharging" : -1.7976931348623157E308,
+ "timeExtremeHighTempCharging" : -1.7976931348623157E308,
+ "timeExtremeLowTemp" : -1.7976931348623157E308,
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ },
+ "CurrentSelfDischargingRate" : {
+ "currentSelfDischargingRateEntity" : -3.3197246E38,
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ },
+ "RemainingEnergy" : {
+ "remainingEnergyalue" : 1.6459358E38,
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ },
+ "EnergyThroughput" : -1.7976931348623157E308,
+ "StateOfCertifiedEnergy" : {
+ "stateOfCertifiedEnergyValue" : 2.9291734E38,
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ },
+ "EvolutionOfSelfDischarge" : {
+ "evolutionOfSelfDischargeEntityValue" : 8.332924E37
+ },
+ "RemainingRoundTripEnergyEfficiency" : {
+ "remainingRoundTripEnergyEfficiencyValue" : -4.5601697E37,
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ },
+ "CapacityThroughput" : {
+ "capacityThroughputValue" : -3.1134133E36,
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ },
+ "RemainingPowerCapability" : [ {
+ "remainingPowerCapabilityValue" : {
+ "atSoC" : 1.5390361E38,
+ "powerCapabilityAt" : -8.846543E37,
+ "rPCLastUpdated" : "2025-08-07T17:55:49.498+02:00"
+ },
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ } ],
+ "NumberOfFullCycles" : {
+ "numberOfFullCyclesValue" : -179769313486231570000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000,
+ "lastUpdate" : "2025-08-07T17:55:49.498+02:00"
+ }
+}
\ No newline at end of file
+ 