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Power and energy meter (BACnet MS/TP) · BACnet points list
Schneider Electric PowerLogic EM4200 energy meter (BACnet MS/TP) BACnet points list
Updated 29 October 2026
The EM4200 meter has a fixed BACnet MS/TP object list: 103 Analog Inputs for energy, power, demand, power factor, voltage, current and frequency (totals, per phase, and import/export), 26 Analog Values for commands and setup (system type, CT and PT settings, demand intervals, pulse output, MS/TP address and baud), and 22 Binary Inputs that flag voltage, current, frequency, phase-loss, power-factor and configuration errors.
This page lists 151 BACnet objects for the Schneider Electric PowerLogic EM4200 energy meter (BACnet MS/TP) — 17 of them writable — with each object’s type, instance number, name, engineering units and access. It is re-typed from Schneider Electric’s own free documentation, linked below.
- Manufacturer
- Schneider Electric
- Model
- PowerLogic EM4200 energy meter (BACnet MS/TP)
- Equipment
- Power and energy meter (BACnet MS/TP)
- Equipment type
- Thermostats, sensors & meters
- BACnet objects
- 151 (17 writable)
- Transport
- BACnet MS/TP
- Firmware
- OS 1.00.20, RS 1.00.07 (device object values in the list)
- Also known as
- EM4200, EM42xx, PowerLogic EM4200, EM4200 BACnet, EM4200 BACnet object list, Schneider energy meter BACnet MS/TP
Reference only, provided as-is: verify against Schneider Electric’s current documentation and the live device before use. Not official Schneider Electric information. Terms of use.
BMS integration notes: Schneider Electric PowerLogic EM4200 energy meter (BACnet MS/TP)
Set the MS/TP MAC address and baud rate and a unique device instance, then read energy (AI 1), total power (AI 4), demand (AI 12), power factor (AI 7), average voltage and current. Use AV 1 Command only when you need to reset energy or demand. Watch the phase-loss and range-error BIs for wiring or supply problems.
Minimum points to map
The short list most integrators start with — enough to run the unit from a BMS. Map more as the job needs.
| Object | Name | Why | Access |
|---|---|---|---|
| AI 1 | kWh | Active energy total, kWh | Read |
| AI 4 | kW_Total | Total active power, kW | Read |
| AI 12 | kW_Present_Demand | Present active power demand, kW | Read |
| AI 7 | PF_Avg | Average power factor | Read |
| AI 8 | Voltage_LL_Avg | Average line-to-line voltage | Read |
| AI 10 | Current_Avg | Average phase current | Read |
| BI 9 | Phase_Loss_L1 | Phase loss on L1 | Read |
| BI 10 | Phase_Loss_L2 | Phase loss on L2 | Read |
| BI 11 | Phase_Loss_L3 | Phase loss on L3 | Read |
Network setup
- MS/TP MAC address 1-127 (AV 19) and baud 9600, 19200, 38400, 76800 or 115200 (AV 20).
- The device instance is pseudo-random out of the box; set a unique one before adding the meter.
- Max_Master defaults to 127 and is writable (1-127); Max_Info_Frames is 1.
- System type (AV 2), CT size and type (AV 3-5) and PT ratio (AV 6) must match the installation or all readings are wrong.
- No segmentation; max APDU 480 bytes; APDU timeout 3000 ms with 3 retries.
Watch out for
- Writing AV 1 with 30078 clears the energy accumulators; use it with care.
- Setup AVs are stored in non-volatile memory; don't write them cyclically.
- BI 17-22 report overridden control of CT size, pulse weight, address, meter mode, analog output and CT interface.
Schneider Electric PowerLogic EM4200 energy meter (BACnet MS/TP) BACnet objects
Type: AI, AO, AV, BI, BO, BV, MI/MO/MV (multi-state) · Access: Read read-only, Write writable, Command writable with a priority array.
| Description | States | |||||
|---|---|---|---|---|---|---|
| AImin | 1 | kWh | Real (Active, P) Energy Consumption | kWh | Read | |
| AI | 2 | kVARh | Reactive (Q) Energy Consumption | kVARh | Read | |
| AI | 3 | kVAh | Apparent (S) Energy Consumption | kVAh | Read | |
| AImin | 4 | kW_Total | Total Real (Active, P) Power | kW | Read | |
| AI | 5 | kVAR_Total | Total Reactive (Q) Power | kVAR | Read | |
| AI | 6 | kVA_Total | Total Apparent (S) Power | kVA | Read | |
| AImin | 7 | PF_Avg | Average Power Factor (P/S) (0.00 - 1.00) | Read | ||
| AImin | 8 | Voltage_LL_Avg | Voltage Line to Line (U): Average of Active Phases | V | Read | |
| AI | 9 | Voltage_LN_Avg | Voltage Line to Neutral (V): Average of Active Phases | V | Read | |
| AImin | 10 | Current_Avg | Current (I): Average of Active Phases | A | Read | |
| AI | 11 | Frequency | Frequency Hz (45.0 - 65.0) | Hz | Read | |
| AImin | 12 | kW_Present_Demand | Total Real (Active, P) Power Present Demand | kW | Read | |
| AI | 13 | kVAR_Present_Demand | Total Reactive (Q) Power Present Demand | kVAR | Read | |
| AI | 14 | kVA_Present_Demand | Total Apparent (S) Power Present Demand | kVA | Read | |
| AI | 15 | kW_Max_Demand | Total Real (Active, P) Power Max Demand | kW | Read | |
| AI | 16 | kVAR_Max_Demand | Total Reactive (Q) Power Max Demand | kVAR | Read | |
| AI | 17 | kVA_Max_Demand | Total Apparent (S) Power Max Demand | kVA | Read | |
| AI | 18 | kWh_L1 | Real (Active, P) Energy Consumption L1 | kWh | Read | |
| AI | 19 | kWh_L2 | Real (Active, P) Energy Consumption L2 | kWh | Read | |
| AI | 20 | kWh_L3 | Real (Active, P) Energy Consumption L3 | kWh | Read | |
| AI | 21 | kVARh_L1 | Reactive (Q) Energy Consumption L1 | kVARh | Read | |
| AI | 22 | kVARh_L2 | Reactive (Q) Energy Consumption L2 | kVARh | Read | |
| AI | 23 | kVARh_L3 | Reactive (Q) Energy Consumption L3 | kVARh | Read | |
| AI | 24 | kVAh_L1 | Apparent (S) Energy Consumption L1 | kVAh | Read | |
| AI | 25 | kVAh_L2 | Apparent (S) Energy Consumption L2 | kVAh | Read | |
| AI | 26 | kVAh_L3 | Apparent (S) Energy Consumption L3 | kVAh | Read | |
| AI | 27 | kW_L1 | Real (Active, P) Power L1 | kW | Read | |
| AI | 28 | kW_L2 | Real (Active, P) Power L2 | kW | Read | |
| AI | 29 | kW_L3 | Real (Active, P) Power L3 | kW | Read | |
| AI | 30 | kVAR_L1 | Reactive (Q) Power L1 | kVAR | Read | |
| AI | 31 | kVAR_L2 | Reactive (Q) Power L2 | kVAR | Read | |
| AI | 32 | kVAR_L3 | Reactive (Q) Power L3 | kVAR | Read | |
| AI | 33 | kVA_L1 | Apparent (S) Power L1 | kVA | Read | |
| AI | 34 | kVA_L2 | Apparent (S) Power L2 | kVA | Read | |
| AI | 35 | kVA_L3 | Apparent (S) Power L3 | kVA | Read | |
| AI | 36 | PF_L1 | Power Factor L1 (0.00 - 1.00) | Read | ||
| AI | 37 | PF_L2 | Power Factor L2 (0.00 - 1.00) | Read | ||
| AI | 38 | PF_L3 | Power Factor L3 (0.00 - 1.00) | Read | ||
| AI | 39 | Voltage_L12 | Voltage L1-L2 (U12) | V | Read | |
| AI | 40 | Voltage_L23 | Voltage L2-L3 (U23) | V | Read | |
| AI | 41 | Voltage_L31 | Voltage L3-L1 (U31) | V | Read | |
| AI | 42 | Voltage_L1 | Voltage L1-N (V1) | V | Read | |
| AI | 43 | Voltage_L2 | Voltage L2-N (V2) | V | Read | |
| AI | 44 | Voltage_L3 | Voltage L3-N (V3) | V | Read | |
| AI | 45 | Current_L1 | Current L1 (I1) | A | Read | |
| AI | 46 | Current_L2 | Current L2 (I2) | A | Read | |
| AI | 47 | Current_L3 | Current L3 (I3) | A | Read | |
| AI | 48 | Current_N | Current Neutral (IN) | A | Read | |
| AI | 49 | kWh Net | Real (Active, P) Energy Consumption: Net (Import - Export) | kWh | Read | |
| AI | 50 | kWh_Import | Real (Active, P) Energy Consumption: Import | kWh | Read | |
| AI | 51 | kWh_Export | Real (Active, P) Energy Consumption: Export | kWh | Read | |
| AI | 52 | kVARh_Q1 | Reactive (Q) Energy Consumption: Quadrant 1 | kVARh | Read | |
| AI | 53 | kVARh_Q2 | Reactive (Q) Energy Consumption: Quadrant 2 | kVARh | Read | |
| AI | 54 | kVARh_Q3 | Reactive (Q) Energy Consumption: Quadrant 3 | kVARh | Read | |
| AI | 55 | kVARh_Q4 | Reactive (Q) Energy Consumption: Quadrant 4 | kVARh | Read | |
| AI | 56 | kVAh_Net | Apparent (S) Energy Consumption: Net (Import - Export) | kVAh | Read | |
| AI | 57 | kVAh_Import | Apparent (S) Energy Consumption: Import | kVAh | Read | |
| AI | 58 | kVAh_Export | Apparent (S) Energy Consumption: Export | kVAh | Read | |
| AI | 59 | Bi-Dir_kW_Total | Bi-Directional Total Real (Active ,P) Power | kW | Read | |
| AI | 60 | Bi-Dir_kVAR_Total | Bi-Directional Total Reactive (Q) Power | kVAR | Read | |
| AI | 61 | Bi-Dir_PF_Avg | Bi-Directional Average Power Factor (-1.00 - 1.00) | Read | ||
| AI | 62 | Bi-Dir_kW_Present_Demand | Bi-Directional Total Real (Active ,P) Power Present Demand | kW | Read | |
| AI | 63 | Bi-Dir_kVAR_Present_Demand | Bi-Directional Total Reactive (Q) Power Present Demand | kVAR | Read | |
| AI | 64 | Bi-Dir_kVA_Present Demand | Bi-Directional Total Apparent (S) Power Present Demand | kVA | Read | |
| AI | 65 | kW_Max_Demand_Import | Total Real (Active ,P) Power Max Demand: Import | kW | Read | |
| AI | 66 | kVAR_Max_Demand_Import | Total Reactive (Q) Power Max Demand: Import | kVAR | Read | |
| AI | 67 | kVA_Max_Demand_Import | Total Apparent (S) Power Max Demand: Import | kVA | Read | |
| AI | 68 | kW_Max_Demand_Export | Total Real (Active ,P) Power Max Demand: Export | kW | Read | |
| AI | 69 | kVAR_Max_Demand_Export | Total Reactive (Q) Power Max Demand: Export | kVAR | Read | |
| AI | 70 | kVA_Max_Demand_Export | Total Apparent (S) Power Max Demand: Export | kVA | Read | |
| AI | 71 | kWh_Import_L1 | Real (Active, P) Energy Consumption: Import L1 | kWh | Read | |
| AI | 72 | kWh_Import_L2 | Real (Active, P) Energy Consumption: Import L2 | kWh | Read | |
| AI | 73 | kWh_Import_L3 | Real (Active, P) Energy Consumption: Import L3 | kWh | Read | |
| AI | 74 | kWh_Export_L1 | Real (Active, P) Energy Consumption: Export L1 | kWh | Read | |
| AI | 75 | kWh_Export_L2 | Real (Active, P) Energy Consumption: Export L2 | kWh | Read | |
| AI | 76 | kWh_Export_L3 | Real (Active, P) Energy Consumption: Export L3 | kWh | Read | |
| AI | 77 | kVARh_Q1_L1 | Reactive (Q) Energy Consumption: Quadrant 1 L1 | kVARh | Read | |
| AI | 78 | kVARh_Q1_L2 | Reactive (Q) Energy Consumption: Quadrant 1 L2 | kVARh | Read | |
| AI | 79 | kVARh_Q1_L3 | Reactive (Q) Energy Consumption: Quadrant 1 L3 | kVARh | Read | |
| AI | 80 | kVARh_Q2_L1 | Reactive (Q) Energy Consumption: Quadrant 2 L1 | kVARh | Read | |
| AI | 81 | kVARh_Q2_L2 | Reactive (Q) Energy Consumption: Quadrant 2 L2 | kVARh | Read | |
| AI | 82 | kVARh_Q2_L3 | Reactive (Q) Energy Consumption: Quadrant 2 L3 | kVARh | Read | |
| AI | 83 | kVARh_Q3_L1 | Reactive (Q) Energy Consumption: Quadrant 3 L1 | kVARh | Read | |
| AI | 84 | kVARh_Q3_L2 | Reactive (Q) Energy Consumption: Quadrant 3 L2 | kVARh | Read | |
| AI | 85 | kVARh_Q3_L3 | Reactive (Q) Energy Consumption: Quadrant 3 L3 | kVARh | Read | |
| AI | 86 | kVARh_Q4_L1 | Reactive (Q) Energy Consumption: Quadrant 4 L1 | kVARh | Read | |
| AI | 87 | kVARh_Q4_L2 | Reactive (Q) Energy Consumption: Quadrant 4 L2 | kVARh | Read | |
| AI | 88 | kVARh_Q4_L3 | Reactive (Q) Energy Consumption: Quadrant 4 L3 | kVARh | Read | |
| AI | 89 | kVAh_Import_L1 | Apparent (S) Energy Consumption: Import L1 | kVAh | Read | |
| AI | 90 | kVAh_Import_L2 | Apparent (S) Energy Consumption: Import L2 | kVAh | Read | |
| AI | 91 | kVAh_Import_L3 | Apparent (S) Energy Consumption: Import L3 | kVAh | Read | |
| AI | 92 | kVAh_Export_L1 | Apparent (S) Energy Consumption: Export L1 | kVAh | Read | |
| AI | 93 | kVAh_Export_L2 | Apparent (S) Energy Consumption: Export L2 | kVAh | Read | |
| AI | 94 | kVAh_Export_L3 | Apparent (S) Energy Consumption: Export L3 | kVAh | Read | |
| AI | 95 | Bi-Dir_kW_L1 | Bi-Directional Real (Active, P) Power L1 | kW | Read | |
| AI | 96 | Bi-Dir_kW_L2 | Bi-Directional Real (Active, P) Power L2 | kW | Read | |
| AI | 97 | Bi-Dir_kW_L3 | Bi-Directional Real (Active, P) Power L3 | kW | Read | |
| AI | 98 | Bi-Dir_kVAR_L1 | Bi-Directional Reactive (Q) Power L1 | kVAR | Read | |
| AI | 99 | Bi-Dir_kVAR_L2 | Bi-Directional Reactive (Q) Power L2 | kVAR | Read | |
| AI | 100 | Bi-Dir_kVAR_L3 | Bi-Directional Reactive (Q) Power L3 | kVAR | Read | |
| AI | 101 | Bi-Dir_PF_L1 | Bi-Directional Power Factor L1 (-1.00 - 1.00) | Read | ||
| AI | 102 | Bi-Dir_PF_L2 | Bi-Directional Power Factor L2 (-1.00 - 1.00) | Read | ||
| AI | 103 | Bi-Dir_PF_L3 | Bi-Directional Power Factor L3 (-1.00 - 1.00) | Read | ||
| AV | 1 | Command | Command register; always reads 0 | Write | 30078 = Clear Energy Accumulators, 21212 = Reset Max Demand, 21211 = Begin New Sub-interval, 16498 = Clear Pulse Counters | |
| AV | 2 | System_Type | System Type | Write | 40 = A+B+C+N, 31 = A+B+C, 12 = A+B+N, 11 = A+B, 10 = A+N | |
| AV | 3 | CT_Size | CT Primary (1 - 12800) | A | Write | |
| AV | 4 | CT_Type | CT Type | Write | 3 = 1/3V CT, 4 = Rogowski | |
| AV | 5 | CT_Size_Neutral | CT Primary Neutral (1 - 12800) | A | Write | |
| AV | 6 | PT_Ratio | PT Ratio | Write | ||
| AV | 7 | System_Voltage | System Voltage | V | Write | |
| AV | 8 | Max_System_Power | Max Sytem Power | kW | Read | |
| AV | 9 | Phase_Loss_Voltage_Threshold | Phase Loss Voltage Threshold | % | Write | |
| AV | 10 | Phase_Loss_Imbalance_Threshold | Phase Loss Imbalance Threshold | % | Write | |
| AV | 11 | Energy_Pulse_Weight | Wh Per Pulse Output | Wh | Write | |
| AV | 12 | Pulse_Contact_Closure_Duration | Pulse Contact Closure Duration | ms | Write | |
| AV | 13 | Sub-Intervals | Number of Sub-Intervals per Demand Interval (1 - 6) | Write | ||
| AV | 14 | Sub-Interval_Length | SubInterval Length (0 - 32767) | s | Write | |
| AV | 15 | CT_Input_Polarity | CT Input Polarity | Write | xxx0b - xxx1b (bit 0) = Phase N; xx0xb - xx1xb (bit 1) = Phase A; x0xxb - x1xxb (bit 2) = Phase B; 0xxxb - 1xxxb (bit 3) = Phase C (0 = normal, 1 = reversed) | |
| AV | 16 | Voltage_Input_L1_Association | Voltage Input L1 CT Association | Read | 1 = Phase A, 2 = Phase B, 3 = Phase C | |
| AV | 17 | Voltage_Input_L2_Association | Voltage Input L2 CT Association | Read | 1 = Phase A, 2 = Phase B, 3 = Phase C | |
| AV | 18 | Voltage_Input_L3_Association | Voltage Input L3 CT Association | Read | 1 = Phase A, 2 = Phase B, 3 = Phase C | |
| AV | 19 | MAC_Address | MSTP MAC Address (1 - 127) | Write | ||
| AV | 20 | MSTP_Baud | MSTP Baudrate (9600, 19200, 38400, 76800, 115200) | Write | ||
| AV | 21 | Energy_Resets | Energy Resets (0 - 32767) | Read | ||
| AV | 22 | Power_Up_Counter | Power Up Counter (0 - 32767) | Read | ||
| AV | 23 | Calibration_Event_Counter | Calibration Event Counter (0 - 32767) | Read | ||
| AV | 24 | Configuration_Event_Counter | Configuration Event Counter (0 - 32767) | Read | ||
| AV | 25 | Output_Configuration | Output Configuration (0 - 32767) | Read | ||
| AV | 26 | Voltage_Input_To_CT_Association_General | Voltage input to CT association (123, 132, 231, 213, 321, 312) | Write | ||
| BI | 1 | Voltage_Error_L1 | Voltage Out of Range L1 | Read | ||
| BI | 2 | Voltage_Error_L2 | Voltage Out of Range L2 | Read | ||
| BI | 3 | Voltage_Error_L3 | Voltage Out of Range L3 | Read | ||
| BI | 4 | Current_Error_L1 | Current Out of Range L1 | Read | ||
| BI | 5 | Current_Error_L2 | Current Out of Range L2 | Read | ||
| BI | 6 | Current_Error_L3 | Current Out of Range L3 | Read | ||
| BI | 7 | Neutral_Current_Error | Current Out of Range Neutral | Read | ||
| BI | 8 | Frequency_Error | Frequency Out of Range | Read | ||
| BImin | 9 | Phase_Loss_L1 | Voltage Phase Loss L1 | Read | ||
| BImin | 10 | Phase_Loss_L2 | Voltage Phase Loss L2 | Read | ||
| BImin | 11 | Phase_Loss_L3 | Voltage Phase Loss L3 | Read | ||
| BI | 12 | Low_Power_Factor_L1 | Low Power Factor L1 | Read | ||
| BI | 13 | Low_Power_Factor_L2 | Low Power Factor L2 | Read | ||
| BI | 14 | Low_Power_Factor_L3 | Low Power Factor L3 | Read | ||
| BI | 15 | Pulse_Overrun_Error | Energy Pulse Output Overrun Error | Read | ||
| BI | 16 | Pulse_Configuration_Error | Energy Pulse Output Configuration Error | Read | ||
| BI | 17 | CT_Size_Override | CT Primary Size Control Overridden | Read | ||
| BI | 18 | Energy_Pulse_Weight_Override | Energy Pulse Weight Control Overridden | Read | ||
| BI | 19 | Device_Address_Override | Device Address Control Overridden | Read | ||
| BI | 20 | Meter_Mode_Override | Meter Mode Control Overridden | Read | ||
| BI | 21 | Analog_Output_Control_Override | Analog Output Control Overridden | Read | ||
| BI | 22 | CT_Interface_Override | CT Interface Overridden | Read |
No points match these filters.
Object ID lookup: Schneider Electric PowerLogic EM4200 energy meter point IDs by name
AI1kWhAI2kVARhAI3kVAhAI4kW_TotalAI5kVAR_TotalAI6kVA_TotalAI7PF_AvgAI8Voltage_LL_AvgAI9Voltage_LN_AvgAI10Current_AvgAI11FrequencyAI12kW_Present_DemandAI13kVAR_Present_DemandAI14kVA_Present_DemandAI15kW_Max_DemandAI16kVAR_Max_DemandAI17kVA_Max_DemandAI18kWh_L1AI19kWh_L2AI20kWh_L3AI21kVARh_L1AI22kVARh_L2AI23kVARh_L3AI24kVAh_L1AI25kVAh_L2AI26kVAh_L3AI27kW_L1AI28kW_L2AI29kW_L3AI30kVAR_L1AI31kVAR_L2AI32kVAR_L3AI33kVA_L1AI34kVA_L2AI35kVA_L3AI36PF_L1AI37PF_L2AI38PF_L3AI39Voltage_L12AI40Voltage_L23AI41Voltage_L31AI42Voltage_L1AI43Voltage_L2AI44Voltage_L3AI45Current_L1AI46Current_L2AI47Current_L3AI48Current_NAI49kWh NetAI50kWh_ImportAI51kWh_ExportAI52kVARh_Q1AI53kVARh_Q2AI54kVARh_Q3AI55kVARh_Q4AI56kVAh_NetAI57kVAh_ImportAI58kVAh_ExportAI59Bi-Dir_kW_TotalAI60Bi-Dir_kVAR_TotalAI61Bi-Dir_PF_AvgAI62Bi-Dir_kW_Present_DemandAI63Bi-Dir_kVAR_Present_DemandAI64Bi-Dir_kVA_Present DemandAI65kW_Max_Demand_ImportAI66kVAR_Max_Demand_ImportAI67kVA_Max_Demand_ImportAI68kW_Max_Demand_ExportAI69kVAR_Max_Demand_ExportAI70kVA_Max_Demand_ExportAI71kWh_Import_L1AI72kWh_Import_L2AI73kWh_Import_L3AI74kWh_Export_L1AI75kWh_Export_L2AI76kWh_Export_L3AI77kVARh_Q1_L1AI78kVARh_Q1_L2AI79kVARh_Q1_L3AI80kVARh_Q2_L1AI81kVARh_Q2_L2AI82kVARh_Q2_L3AI83kVARh_Q3_L1AI84kVARh_Q3_L2AI85kVARh_Q3_L3AI86kVARh_Q4_L1AI87kVARh_Q4_L2AI88kVARh_Q4_L3AI89kVAh_Import_L1AI90kVAh_Import_L2AI91kVAh_Import_L3AI92kVAh_Export_L1AI93kVAh_Export_L2AI94kVAh_Export_L3AI95Bi-Dir_kW_L1AI96Bi-Dir_kW_L2AI97Bi-Dir_kW_L3AI98Bi-Dir_kVAR_L1AI99Bi-Dir_kVAR_L2AI100Bi-Dir_kVAR_L3AI101Bi-Dir_PF_L1AI102Bi-Dir_PF_L2AI103Bi-Dir_PF_L3AV1CommandAV2System_TypeAV3CT_SizeAV4CT_TypeAV5CT_Size_NeutralAV6PT_RatioAV7System_VoltageAV8Max_System_PowerAV9Phase_Loss_Voltage_ThresholdAV10Phase_Loss_Imbalance_ThresholdAV11Energy_Pulse_WeightAV12Pulse_Contact_Closure_DurationAV13Sub-IntervalsAV14Sub-Interval_LengthAV15CT_Input_PolarityAV16Voltage_Input_L1_AssociationAV17Voltage_Input_L2_AssociationAV18Voltage_Input_L3_AssociationAV19MAC_AddressAV20MSTP_BaudAV21Energy_ResetsAV22Power_Up_CounterAV23Calibration_Event_CounterAV24Configuration_Event_CounterAV25Output_ConfigurationAV26Voltage_Input_To_CT_Association_GeneralBI1Voltage_Error_L1BI2Voltage_Error_L2BI3Voltage_Error_L3BI4Current_Error_L1BI5Current_Error_L2BI6Current_Error_L3BI7Neutral_Current_ErrorBI8Frequency_ErrorBI9Phase_Loss_L1BI10Phase_Loss_L2BI11Phase_Loss_L3BI12Low_Power_Factor_L1BI13Low_Power_Factor_L2BI14Low_Power_Factor_L3BI15Pulse_Overrun_ErrorBI16Pulse_Configuration_ErrorBI17CT_Size_OverrideBI18Energy_Pulse_Weight_OverrideBI19Device_Address_OverrideBI20Meter_Mode_OverrideBI21Analog_Output_Control_OverrideBI22CT_Interface_Override
Integration notes
- Energy totals, max demands and most setup values are kept in non-volatile memory.
- AV 1 Command takes one of four codes: 30078 clears energy accumulators, 21212 resets max demand, 21211 starts a new demand sub-interval, 16498 clears pulse counters. It always reads 0.
- BI 17-22 flag that control of a setting (CT size, pulse weight, address, meter mode, analog output, CT interface) is overridden; they are not measurement faults.
- The device object instance defaults to a pseudo-random value; Object_Name, Location and Max_Master are writable.
- Source is Schneider's Excel object list (EM4200_BACnet_ObjectList.xlsx); the file prints no revision or date.
Check it against the live device. A points list tells you what the controller can expose; the unit in front of you may differ by firmware or installed options. This list is provided as-is for reference only and may contain mistakes — confirming it before you write, map or commission anything is up to you (terms). Easy BACnet scans a network for BACnet IP devices from an Android phone, reads every object on the PowerLogic EM4200 energy meter (BACnet MS/TP) and exports what it actually has to Excel — free. New to BACnet? Start with what a BACnet points list is and what the object types mean.
Questions about the Schneider Electric PowerLogic EM4200 energy meter (BACnet MS/TP)
How many BACnet points does the Schneider Electric PowerLogic EM4200 energy meter (BACnet MS/TP) have?
This list has 151 BACnet objects: 103 analog inputs, 26 analog values, 22 binary inputs. The exact set on a given unit depends on its firmware, installed options and configuration.
Which Schneider Electric PowerLogic EM4200 energy meter (BACnet MS/TP) BACnet points are writable?
17 of the 151 objects accept a write. Points marked Command have a priority array: a write holds until it is released, so release it back to automatic when you are done.
Where is the official Schneider Electric PowerLogic EM4200 energy meter (BACnet MS/TP) BACnet documentation?
The source is EM4200 BACnet object list (Excel version) (EM4200_BACnet_ObjectList), published free by Schneider Electric at https://download.schneider-electric.com/files?p_Doc_Ref=EM4200_BACnet_ObjectList.
What are the minimum BACnet points to integrate the Schneider Electric PowerLogic EM4200 energy meter (BACnet MS/TP)?
Start with AI 1 kWh (Active energy total, kWh); AI 4 kW_Total (Total active power, kW); AI 12 kW_Present_Demand (Present active power demand, kW); AI 7 PF_Avg (Average power factor); AI 8 Voltage_LL_Avg (Average line-to-line voltage); AI 10 Current_Avg (Average phase current); BI 9 Phase_Loss_L1 (Phase loss on L1); BI 10 Phase_Loss_L2 (Phase loss on L2); BI 11 Phase_Loss_L3 (Phase loss on L3).
How do I check these points on the real PowerLogic EM4200 energy meter (BACnet MS/TP)?
Scan the network with a BACnet IP browser such as Easy BACnet, open the device and compare its object list with this table. Anything missing is usually an option that isn't installed or a point that is disabled in the controller's configuration.
More Schneider Electric BACnet points lists
- Power and energy meter (BACnet MS/TP)
Schneider Electric Acti 9 iEM3165 / iEM3265 / iEM3365 energy meter (BACnet MS/TP)
Schneider Electric iEM3165, iEM3265 and iEM3365 DIN-rail energy meters, the BACnet MS/TP models of the iEM3100/iEM3200/iEM3300 series.
Also known as: iEM3165, iEM3265, iEM3365, A9MEM3165, A9MEM3265, A9MEM3365, iEM3000 BACnet, Acti9 iEM3000 BACnet MS/TP, DOCA0005EN - Variable frequency drive (HVAC)
Schneider Electric Altivar 212 (embedded BACnet MS/TP)
Schneider Electric Altivar 212 HVAC fan and pump drives using the built-in open-style RS-485 terminals with F829 set to BACnet.
Also known as: ATV212, ATV 212, Altivar 212, ATV212H, ATV212W, S1A53845 - Variable frequency drive (BACnet MS/TP option card)
Schneider Electric Altivar 61 BACnet MS/TP card VW3A3319
Schneider Electric Altivar 61 HVAC drives fitted with the VW3A3319 BACnet MS/TP option card.
Also known as: ATV61 BACnet, VW3A3319, VW3 A3 319, Altivar 61 - Variable frequency drive
Schneider Electric Altivar Process ATV600 (BACnet MS/TP)
Schneider Electric Altivar Process ATV630, ATV650, ATV660 and ATV690 drives on BACnet MS/TP.
Also known as: ATV600, ATV630, ATV650, ATV660, ATV690, Altivar Process, Altivar 600, ATV6xx - Power and energy meter (BACnet IP)
Schneider Electric EM3570 series DIN Ethernet energy meter (BACnet IP)
Schneider Electric EM3570 series three-phase DIN-rail Ethernet energy meters (LVCT or Rogowski inputs, with or without power supply module), firmware 1.9.0.
Also known as: EM3570, METSEEM3570, METSEEM3570A, METSEEM3570X, METSEEM3570AX, EM70, EM3570 BACnet - Power and energy meter (BACnet MS/TP)
Schneider Electric iEM3465 / iEM3565 energy meter (BACnet MS/TP)
Schneider Electric iEM3465 (LVCT inputs) and iEM3565 (Rogowski coil inputs) DIN-rail energy meters, the BACnet MS/TP models of the iEM3400 / iEM3500 series.
Also known as: iEM3465, iEM3565, iEM3400 BACnet, iEM3500 BACnet, iEM3X65, 7EN02-0438 - Multi-circuit branch power meter (high density)
Schneider Electric PowerLogic HDPM6000 high-density power meter (BACnet IP)
Schneider Electric (ex-Veris) PowerLogic HDPM6000 head units with busway, strip or retrofit measurement modules, on BACnet IP over Ethernet.
Also known as: HDPM6000, PowerLogic HDPM6000, HDPM6000B, HDPM6000S, HDPM6000S24, HDPM6000R, Veris HDPM6000, ZL0192 - Power and energy meter (BACnet IP)
Schneider Electric PowerLogic PM5300 power meter (BACnet IP)
Schneider Electric PowerLogic PM5300 series power meters with the Ethernet port (PM5320, PM5340, PM5341) using BACnet IP.
Also known as: PM5300, PM5320, PM5340, PM5341, PowerLogic PM5320 BACnet, METSEPM5320, METSEPM5340 - Power and energy meter (BACnet IP)
Schneider Electric PowerLogic PM5500 / PM5600 / PM5700 power meter (BACnet IP)
Schneider Electric PowerLogic PM5500, PM5600 and PM5700 series power meters with Ethernet (PM5560-PM5761) using BACnet IP.
Also known as: PM5500, PM5560, PM5561, PM5562, PM5563, PM5570, PM5580, PM5650, PM5660, PM5661, PM5760, PM5761, PowerLogic PM5560 BACnet, METSEPM5560 - Power and energy meter (BACnet IP)
Schneider Electric PowerLogic PM7000 series power and energy meter (BACnet IP)
Schneider Electric PowerLogic PM7000 series panel meters PM7351DUW, PM7252DUW, PM7151DUW and PM7142DUW with BACnet IP, firmware 1.0.1.
Also known as: PM7000, PM7351DUW, PM7252DUW, PM7151DUW, PM7142DUW, PM7351, PM7252, PM7151, PM7142, PowerLogic Intuitive PM7000 - Zone controller (room thermostat)
Schneider Electric SE7200 Series PIR Ready Zoning Controller
Schneider Electric PIR-ready SE7200 series 24 Vac zoning controllers (SE7200C5x45B, SE7200F5x45B).
Also known as: SE7200, SE7200C5x45B, SE7200F5x45B, SE7200C5045B, SE7200F5045B - Fan coil unit controller (room thermostat)
Schneider Electric SE7300 Series PIR Ready Fan Coil Controller
Schneider Electric PIR-ready SE7300 series 24 Vac fan coil controllers: SE7300, SE7305 (lodging), SE7350 and SE7355 (with humidity), C and F versions.
Also known as: SE7300, SE7305, SE7350, SE7355, SE7300C5x45B, SE7300F5x45B, SE7350C5x45B, SE7355F5x45B - Fan coil unit controller (room thermostat)
Schneider Electric SER7300 Series PIR Ready Line Voltage Fan Coil Controller
Schneider Electric PIR-ready SER7300 series line-voltage fan coil controllers: SER7300, SER7305, SER7350 and SER7355 (A versions).
Also known as: SER7300, SER7305, SER7350, SER7355, SER7300A5x45B, SER7350A5x45B - Pressure-dependent VAV zone controller
Schneider Electric SEZ7260 Zoning System Zone Controller
Schneider Electric SEZ7260 zone controllers (F model with floating damper and AO2, C model) used with SEZ7656 rooftop controllers in pressure-dependent zoning systems.
Also known as: SEZ7260, SEZ7260F5045B, SEZ7260C5045B, SEZ7260F5x45B, SEZ7260C5x45B - Rooftop unit controller for zoning systems
Schneider Electric SEZ7656 Zoning System Rooftop Unit Controller
Schneider Electric SEZ7656 rooftop controllers (R conventional, H heat pump, F modulating heat, E economizer) that run a rooftop unit for a group of SEZ7260 zone controllers.
Also known as: SEZ7656, SEZ7656R1045B, SEZ7656H1045B, SEZ7656F1045B, SEZ7656E1045B - Fan coil unit controller (room thermostat)
Schneider Electric SpaceLogic SE8350 Fan Coil and Zone Controller
Schneider Electric SpaceLogic SE8000-series SE8350 room controllers for low-voltage (24 Vac) 2-pipe and 4-pipe fan coil units and zone control.
Also known as: SE8350, SpaceLogic SE8350, SE8000 SE8350, Schneider SE8350 - Fan coil unit controller (room thermostat)
Schneider Electric SpaceLogic SER8350 Line Voltage Fan Coil Controller
Schneider Electric SpaceLogic SE8000-series SER8350 room controllers for line-voltage fan coil units.
Also known as: SER8350, SpaceLogic SER8350, SE8000 SER8350, Schneider SER8350 - Room humidity and temperature sensor (wall)
Schneider Electric SpaceLogic SLP Series humidity and temperature sensor (BACnet MS/TP)
Schneider Electric SpaceLogic SLP Series wall humidity/temperature sensors (with or without touchscreen) set to BACnet MS/TP.
Also known as: SpaceLogic SLP, SLP humidity temperature, SLP Series HT, Z207903 - Fan coil unit controller (room thermostat)
Schneider Electric SpaceLogic SXWTRC3500 Touchscreen Room Controller (fan coil)
Schneider Electric SpaceLogic SXWTRCn500 touchscreen room controllers in the 3500 (fan coil unit) version.
Also known as: SXWTRC3500, SXWTRCn500, SpaceLogic touchscreen room controller, TRC fan coil - Rooftop unit controller (room thermostat, rooftop or heat-pump units)
Schneider Electric SpaceLogic SXWTRC6500 Touchscreen Room Controller (rooftop / heat pump)
Schneider Electric SpaceLogic SXWTRCn500 touchscreen room controllers in the 6500 (rooftop unit / heat pump) version.
Also known as: SXWTRC6500, SXWTRCn500, SpaceLogic touchscreen room controller, TRC rooftop heat pump - Fan coil thermostat
Schneider Electric SpaceLogic TC900 Protocol Series fan coil thermostat (TC903 / TC907)
Schneider Electric SpaceLogic TC903 and TC907 Protocol Series fan coil thermostats (on/off or proportional valves, 3-speed or EC fan, 2-pipe or 4-pipe).
Also known as: TC900, TC903, TC907, TC903-EF4LDPSA, TC903-EF4PDPSA, TC903-3A4LXPXA, TC903-3A4LDPSA, TC903-3A4PDPSA, TC907-EF4LDPSAB, TC907-EF4PDPSAB, TC907-3A4LDPSAB, TC907-3A4PDPSAB, F-28335
Source: EM4200 BACnet object list (Excel version) · EM4200_BACnet_ObjectList. Object names, instances and units are reproduced as published; descriptions are our own.