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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 28 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
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.
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. 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
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Source: EM4200 BACnet object list (Excel version) · EM4200_BACnet_ObjectList. Object names, instances and units are reproduced as published; descriptions are our own.