The dashboards in the TSD Dashboard Library already do a lot of the work for you.
In order for the dashboard to interpret these metrics correctly, the variables must be named correctly. Below you will find the correct naming of the variables so that they can be displayed automatically in the dashboard.
Note: Before you can see data in any dashboards, the metrics must be activated in the Device Management Service. Only then can they also be used in the Time Series Data Service.
Names of the metrics for the Battery Energy Storage System (BESS) dashboard of the TSD Dashboard Library
| Function | Metric name | Explanation |
|---|---|---|
| State of Charge | State_Of_Charge | State of Charge is the real-time measurement of the battery’s remaining capacity. |
| Apparent Power | Apparent_Power | Apparent Power is the real-time measurement of the total power, including both active and reactive components, in an industrial battery storage system; by tracking it, you can detect load imbalances, plan resource allocation, and maintain efficient operation. |
| Active Power | Active_Power | Active Power is the real-time measure of the actual power consumption or generation within an electrical system. |
| Current L1 | Current_L1 | Current L1 is the real-time current flow in phase L1; by accessing it remotely via the Time Series Data Service, you can monitor it live to detect load peaks early, optimize the system, and promptly troubleshoot issues. |
| Current L2 | Current_L2 | Current L2 is the real-time current flow in phase L2; by accessing it remotely via the Time Series Data Service, you can monitor it live to detect load peaks early, optimize the system, and promptly troubleshoot issues. |
| Current L3 | Current_L3 | Current L3 is the real-time current flow in phase L3; by accessing it remotely via the Time Series Data Service, you can monitor it live to detect load peaks early, optimize the system, and promptly troubleshoot issues. |
| Max Discharging Power | Max_Discharging_Power | Max_Discharging_Power is the maximum power the industrial battery storage system can discharge at any given time; by monitoring it, you can optimize performance, prevent overload, and ensure a reliable energy supply. |
| C Rate Max Charging | C_Rate_Max_Charging | C_Rate_Max_Charging describes the maximum charging rate for the battery in an industrial storage system; by monitoring this parameter, you can ensure safe and efficient energy management. |
| Energy Content Available for Discharging | Energy_Content_Available_For_Discharging | Energy_Content_Available_For_Discharging indicates the total amount of energy the industrial battery storage system can currently supply; tracking this value helps ensure stable and efficient power delivery. |
| Conductor Voltage L1 To Earth | Conductor_Voltage_L1_To_Earth | Conductor_Voltage_L1_To_Earth indicates the measured voltage between the third phase (L1) and earth in an industrial battery storage system, allowing you to ensure safe and stable operation and detect potential faults early. |
| Conductor Voltage L2 To Earth | Conductor_Voltage_L2_To_Earth | Conductor_Voltage_L2_To_Earth indicates the measured voltage between the third phase (L2) and earth in an industrial battery storage system, allowing you to ensure safe and stable operation and detect potential faults early. |
| Conductor Voltage L3 To Earth | Conductor_Voltage_L3_To_Earth | Conductor_Voltage_L3_To_Earth indicates the measured voltage between the third phase (L3) and earth in an industrial battery storage system, allowing you to ensure safe and stable operation and detect potential faults early. |
| Frequency | Frequency | Frequency represents the number of alternating current cycles per second in an industrial battery system, allowing operators to maintain grid stability and prevent potential equipment damage. |
| Temperature | Temperature | Temperature measures the thermal conditions within an industrial battery system; monitoring it helps ensure safe operation, prevent damage, and maintain optimal performance. |
| Reactive Power | Reactive_Power | Reactive_Power represents the portion of power in an industrial battery storage system that oscillates between source and load without producing net energy transfer; monitoring it helps maintain voltage stability and improve overall system efficiency. |
| Max Charging Power | Max_Charging_Power | Max_Charging_Power indicates the maximum power the industrial battery storage system can draw for charging; knowing this limit ensures safe operation and optimal performance. |
| DC Power | DC_Power | DC_Power indicates the direct current power flow in an industrial battery storage system, enabling accurate assessment of charging and discharging processes and ensuring efficient operation. |
| State of Health | State_Of_Health | State_Of_Health indicates the battery’s overall condition and ability to meet its designed performance in an industrial battery storage system; monitoring it enables proactive maintenance and helps maintain reliable operation. |
| DC Voltage | DC_Voltage | DC_Voltage indicates the measured voltage level in the direct current circuit of an industrial battery storage system, enabling effective power management and ensuring reliable operation. |
| Full charge cycles | Full_Charge_Cycles | Full_Charge_Cycles indicates the total number of complete charge cycles performed by an industrial battery storage system; tracking this helps evaluate battery aging and schedule maintenance. |
| Energy Content Free For Charging | Energy_Content_Free_For_Charging | Energy_Content_Free_For_Charging indicates the remaining capacity available to store energy in an industrial battery storage system; monitoring this helps you plan and optimize charging operations. |