- Home
- BACnet points lists
- Leviton
- VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP)
Power and energy meter (BACnet MS/TP) · BACnet points list
Leviton VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP) BACnet points list
Updated 12 November 2026
The Series 4100 is a compact DIN-rail three-phase meter that measures power and energy in both directions (import and export), for example on sites with solar. Over BACnet MS/TP it serves 83 Analog Inputs for net, import and export energy (total and per phase, real, reactive by quadrant and apparent), power, power factor, voltage, current, frequency and demand, 11 writable Analog Values for setup and commands, and 15 Binary Input alerts.
This page lists 109 BACnet objects for the Leviton VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP) — 11 of them writable — with each object’s type, instance number, name, engineering units and access. It is re-typed from Leviton’s own free documentation, linked below.
- Manufacturer
- Leviton
- Model
- VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP)
- Equipment
- Power and energy meter (BACnet MS/TP)
- Equipment type
- Thermostats, sensors & meters
- BACnet objects
- 109 (11 writable)
- Transport
- BACnet MS/TP
- Firmware
- Application S4100-C
- Default device instance
- Pseudo-random, 1,000,000-3,097,151
- Also known as
- Series 4100, S4100, 4DUBM, 41OUB, VerifEye 4100, Leviton 4100 BACnet, Leviton S4100 Energy Meter
Reference only, provided as-is: verify against Leviton’s current documentation and the live device before use. Not official Leviton information. Terms of use.
BMS integration notes: Leviton VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP)
Set the MAC address and baud at the meter display, write AV2 System_Type, AV3/AV4 CT settings, AV5 PT ratio and AV6 system voltage, then read net and import/export energy, total power, demand and voltage/current. Read AI83 Alarm_Bitmap (or the BIs) for alerts.
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_Net | Net energy (import minus export), kWh | Read |
| AI 2 | KWh_Import | Imported energy, kWh | Read |
| AI 3 | KWh_Export | Exported energy, kWh | Read |
| AI 11 | KW_Total | Total real power, kW | Read |
| AI 19 | KW_Present_Demand | Present real power demand, kW | Read |
| AI 14 | PF_Total | Total power factor | Read |
| AI 15 | Volts_LL_Avg | Average line-to-line voltage | Read |
| AI 17 | Current Average | Average phase current, A | Read |
| AI 83 | Alarm_Bitmap | Alert bits BI1-BI15 as one number | Read |
Network setup
- MAC address 0-127 (default 1) and baud 9600-115200 (default 76800) are set on the meter display.
- Device ID defaults to a pseudo-random 1,000,000-3,097,151; set it on the display or by writing Object_Identifier.
- Max_Master default 127.
- Set AV5 PT_Ratio before AV6 System_Voltage; System_Voltage must stay within 82-660 V times the PT ratio.
- Use 120 Ω termination at both ends of the RS-485 daisy chain.
Watch out for
- Alerts are not latched; a cleared condition disappears before it is read.
- Writing AV1 = 30078 clears all energy accumulators.
- Factory defaults can't be restored automatically; reset each setting by hand.
Leviton VerifEye Series 4100 bi-directional power and 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 | |||||
|---|---|---|---|---|---|---|
| AV | 1 | Config | Command register; reads 0 | Write | 30078=clear all energy accumulators, 21211=start new demand sub-interval (sync-to-comms), 21212=reset max demand, 16498=clear pulse counters | |
| AV | 2 | System_Type | Wiring system type (default 40) | Write | 10=Single-phase A+N, 11=Single-phase A+B, 12=Split-phase A+B+N, 31=3-phase A+B+C no N, 40=3-phase Y A+B+C+N | |
| AV | 3 | CT_Ratio_Primary | CT primary current, 5-32000 (default 100) | A | Write | |
| AV | 4 | CT_Ratio_Secondary | CT secondary: 1 = 1 V CTs (default), 3 = 1/3 V CTs | Write | ||
| AV | 5 | PT_Ratio | PT ratio, 0.01-320.0 (default 1 = no PT) | Write | ||
| AV | 6 | System_Voltage | System voltage, L-L (L-N in type 10), default 600 | V | Write | |
| AV | 7 | Display_Units | Display units | Write | 0=IEC, 1=IEEE (default) | |
| AV | 8 | Phase_Loss_Voltage_Threshold | Phase loss voltage threshold, 1-99 (default 10) | % | Write | |
| AV | 9 | Phase_Loss_Imbalance_Threshold | Phase loss imbalance threshold, 1-99 (default 25) | % | Write | |
| AV | 10 | Subintervals | Sub-intervals per demand interval, 1-6 (default 1) | Write | ||
| AV | 11 | Subinterval_Length | Sub-interval length in 1/100 s; 0 = sync-to-comms (default 90000) | Write | ||
| AImin | 1 | KWh_Net | Accumulated Real Energy: Net (Import - Export) | kWh | Read | |
| AImin | 2 | KWh_Import | Real Energy Import | kWh | Read | |
| AImin | 3 | KWh_Export | Real Energy Export | kWh | Read | |
| AI | 4 | KVARh_Q1 | Reactive Energy Quadrant 1 | kVARh | Read | |
| AI | 5 | KVARh_Q2 | Reactive Energy Quadrant 2 | kVARh | Read | |
| AI | 6 | KVARh_Q3 | Reactive Energy Quadrant 3 | kVARh | Read | |
| AI | 7 | KVARh_Q4 | Reactive Energy Quadrant 4 | kVARh | Read | |
| AI | 8 | Net_KVAh | Apparent Energy: Net (Import - Export) | kVAh | Read | |
| AI | 9 | KVAh_Import | Apparent Energy Import | kVAh | Read | |
| AI | 10 | KVAh_Export | Apparent Energy Export | kVAh | Read | |
| AImin | 11 | KW_Total | Total Instantaneous Real Power | kW | Read | |
| AI | 12 | KVAR_Total | Total Instantaneous Reactive Power | kVAR | Read | |
| AI | 13 | KVA_Total | Total Instantaneous Apparent Power | kVA | Read | |
| AImin | 14 | PF_Total | Total Power Factor (-1.00 to 1.00) | Read | ||
| AImin | 15 | Volts_LL_Avg | Voltage, L-L, Average of Active Phases | V | Read | |
| AI | 16 | Volts_LN_Avg | Voltage, L-N, Average of Active Phases | V | Read | |
| AImin | 17 | Current Average | Current, Average of Active Phases | A | Read | |
| AI | 18 | Frequency | Frequency | Hz | Read | |
| AImin | 19 | KW_Present_Demand | Total Real Power Present Demand | kW | Read | |
| AI | 20 | KVAR_Present_Demand | Total Reactive Power Present Demand | kVAR | Read | |
| AI | 21 | KVA_Present_Demand | Total Apparent Power Present Demand | kVA | Read | |
| AI | 22 | KW_Max_Demand_Import | Total Real Power Max Demand Import | kW | Read | |
| AI | 23 | KVAR_Max_Demand_Import | Total Reactive Power Max Demand Import | kVAR | Read | |
| AI | 24 | KVA_Max_Demand_Import | Total Apparent Power Max Demand Import | kVA | Read | |
| AI | 25 | KW_Max_Demand_Export | Total Real Power Max Demand Export | kW | Read | |
| AI | 26 | KVAR_Max_Demand_Export | Total Reactive Power Max Demand Export | kVAR | Read | |
| AI | 27 | KVA_Max_Demand_Export | Total Apparent Power Max Demand Export | kVA | Read | |
| AI | 28 | Reserved_AI28 | Reserved | Read | ||
| AI | 29 | Pulse Count | Pulse count (0-4294967040) | Read | ||
| AI | 30 | Reserved | Reserved | Read | ||
| AI | 31 | KWh_Import_A | Real Energy Import Phase A | kWh | Read | |
| AI | 32 | KWh_Import_B | Real Energy Import Phase B | kWh | Read | |
| AI | 33 | KWh_Import_C | Real Energy Import Phase C | kWh | Read | |
| AI | 34 | KWh_Export_A | Real Energy Export Phase A | kWh | Read | |
| AI | 35 | KWh_Export_B | Real Energy Export Phase B | kWh | Read | |
| AI | 36 | KWh_Export_C | Real Energy Export Phase C | kWh | Read | |
| AI | 37 | KVARh_Q1_A | Reactive Energy Q1 Phase A | kVARh | Read | |
| AI | 38 | KVARh_Q1_B | Reactive Energy Q1 Phase b | kVARh | Read | |
| AI | 39 | KVARh_Q1_C | Reactive Energy Q1 Phase C | kVARh | Read | |
| AI | 40 | KVARh_Q2_A | Reactive Energy Q2 Phase A | kVARh | Read | |
| AI | 41 | KVARh_Q2_B | Reactive Energy Q2 Phase B | kVARh | Read | |
| AI | 42 | KVARh_Q2_C | Reactive Energy Q2 Phase C | kVARh | Read | |
| AI | 43 | KVARh_Q3_A | Reactive Energy Q3 Phase A | kVARh | Read | |
| AI | 44 | KVARh_Q3_B | Reactive Energy Q3 Phase B | kVARh | Read | |
| AI | 45 | KVARh_Q3_C | Reactive Energy Q3 Phase C | kVARh | Read | |
| AI | 46 | KVARh_Q4_A | Reactive Energy Q4 Phase A | kVARh | Read | |
| AI | 47 | KVARh_Q4_B | Reactive Energy Q4 Phase b | kVARh | Read | |
| AI | 48 | KVARh_Q4_C | Reactive Energy Q4 Phase C | kVARh | Read | |
| AI | 49 | KVAh_Import_A | Apparent Energy Import Phase A | kVAh | Read | |
| AI | 50 | KVAh_Import_B | Apparent Energy Import Phase B | kVAh | Read | |
| AI | 51 | KVAh_Import_C | Apparent Energy Import Phase C | kVAh | Read | |
| AI | 52 | KVAh_Export_A | Apparent Energy Export Phase A | kVAh | Read | |
| AI | 53 | KVAh_Export_B | Apparent Energy Export Phase B | kVAh | Read | |
| AI | 54 | KVAh_Export_C | Apparent Energy Export Phase C | kVAh | Read | |
| AI | 55 | KW_A | Real Power Phase A | kW | Read | |
| AI | 56 | KW_B | Real Power Phase B | kW | Read | |
| AI | 57 | KW_C | Real Power Phase C | kW | Read | |
| AI | 58 | KVAR_A | Reactive Power Phase A | kVAR | Read | |
| AI | 59 | KVAR_B | Reactive Power Phase B | kVAR | Read | |
| AI | 60 | KVAR_C | Reactive Power Phase C | kVAR | Read | |
| AI | 61 | KVA_A | Apparent Power Phase A | kVA | Read | |
| AI | 62 | KVA_B | Apparent Power Phase B | kVA | Read | |
| AI | 63 | KVA_C | Apparent Power Phase C | kVA | Read | |
| AI | 64 | PF_A | Power Factor Phase A | Read | ||
| AI | 65 | PF_B | Power Factor Phase B | Read | ||
| AI | 66 | PF_C | Power Factor Phase C | Read | ||
| AI | 67 | Volts_AB | Voltage Phase A-B | V | Read | |
| AI | 68 | Volts_BC | Voltage Phase B-C | V | Read | |
| AI | 69 | Volts_AC | Voltage Phase A-C | V | Read | |
| AI | 70 | Volts_AN | Voltage Phase A-N | V | Read | |
| AI | 71 | Volts_BN | Voltage Phase B-N | V | Read | |
| AI | 72 | Volts_CN | Voltage Phase C-N | V | Read | |
| AI | 73 | Current_A | Current Phase A | A | Read | |
| AI | 74 | Current_B | Current Phase B | A | Read | |
| AI | 75 | Current_C | Current Phase C | A | Read | |
| AI | 76 | Max_Power | Max power (full scale from AV2, AV3, AV5, AV6) | kW | Read | |
| AI | 77 | Reserved_AI77 | Reserved | Read | ||
| AI | 78 | Energy_Resets | Count of energy resets | Read | ||
| AI | 79 | Reserved_AI79 | Reserved | Read | ||
| AI | 80 | Reserved_AI80 | Reserved | Read | ||
| AI | 81 | Power_Up_Count | Count of power-up cycles | Read | ||
| AI | 82 | Output_Config | Output configuration (returns 11) | Read | ||
| AImin | 83 | Alarm_Bitmap | Alarm bitmap of BI1-BI15 | Read | ||
| BI | 1 | Volts_Error_A | Voltage out of range, phase A | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 2 | Volts_Error_B | Voltage out of range, phase B | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 3 | Volts_Error_C | Voltage out of range, phase C | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 4 | Current_Error_A | Current out of range, phase A | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 5 | Current_Error_A | Current out of range, phase B | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 6 | Current_Error_A | Current out of range, phase C | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 7 | Frequency_Error | Frequency out of range | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 8 | Reserved_BI8 | Reserved, returns INACTIVE | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 9 | Phase_Loss_A | Phase loss, phase A | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 10 | Phase_Loss_B | Phase loss, phase B | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 11 | Phase_Loss_C | Phase loss, phase C | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 12 | Power_Factor_A | Low power factor (<50 %), phase A | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 13 | Power_Factor_B | Low power factor (<50 %), phase B | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 14 | Power_Factor_C | Low power factor (<50 %), phase C | Read | 0=INACTIVE, 1=ACTIVE | |
| BI | 15 | RTC_Reset | Real-time clock was reset; time not valid until synced | Read | 0=INACTIVE, 1=ACTIVE |
No points match these filters.
Object ID lookup: Leviton VerifEye Series 4100 bi-directional power and energy meter point IDs by name
AV1ConfigAV2System_TypeAV3CT_Ratio_PrimaryAV4CT_Ratio_SecondaryAV5PT_RatioAV6System_VoltageAV7Display_UnitsAV8Phase_Loss_Voltage_ThresholdAV9Phase_Loss_Imbalance_ThresholdAV10SubintervalsAV11Subinterval_LengthAI1KWh_NetAI2KWh_ImportAI3KWh_ExportAI4KVARh_Q1AI5KVARh_Q2AI6KVARh_Q3AI7KVARh_Q4AI8Net_KVAhAI9KVAh_ImportAI10KVAh_ExportAI11KW_TotalAI12KVAR_TotalAI13KVA_TotalAI14PF_TotalAI15Volts_LL_AvgAI16Volts_LN_AvgAI17Current AverageAI18FrequencyAI19KW_Present_DemandAI20KVAR_Present_DemandAI21KVA_Present_DemandAI22KW_Max_Demand_ImportAI23KVAR_Max_Demand_ImportAI24KVA_Max_Demand_ImportAI25KW_Max_Demand_ExportAI26KVAR_Max_Demand_ExportAI27KVA_Max_Demand_ExportAI28Reserved_AI28AI29Pulse CountAI30ReservedAI31KWh_Import_AAI32KWh_Import_BAI33KWh_Import_CAI34KWh_Export_AAI35KWh_Export_BAI36KWh_Export_CAI37KVARh_Q1_AAI38KVARh_Q1_BAI39KVARh_Q1_CAI40KVARh_Q2_AAI41KVARh_Q2_BAI42KVARh_Q2_CAI43KVARh_Q3_AAI44KVARh_Q3_BAI45KVARh_Q3_CAI46KVARh_Q4_AAI47KVARh_Q4_BAI48KVARh_Q4_CAI49KVAh_Import_AAI50KVAh_Import_BAI51KVAh_Import_CAI52KVAh_Export_AAI53KVAh_Export_BAI54KVAh_Export_CAI55KW_AAI56KW_BAI57KW_CAI58KVAR_AAI59KVAR_BAI60KVAR_CAI61KVA_AAI62KVA_BAI63KVA_CAI64PF_AAI65PF_BAI66PF_CAI67Volts_ABAI68Volts_BCAI69Volts_ACAI70Volts_ANAI71Volts_BNAI72Volts_CNAI73Current_AAI74Current_BAI75Current_CAI76Max_PowerAI77Reserved_AI77AI78Energy_ResetsAI79Reserved_AI79AI80Reserved_AI80AI81Power_Up_CountAI82Output_ConfigAI83Alarm_BitmapBI1Volts_Error_ABI2Volts_Error_BBI3Volts_Error_CBI4Current_Error_ABI5Current_Error_ABI6Current_Error_ABI7Frequency_ErrorBI8Reserved_BI8BI9Phase_Loss_ABI10Phase_Loss_BBI11Phase_Loss_CBI12Power_Factor_ABI13Power_Factor_BBI14Power_Factor_CBI15RTC_Reset
Integration notes
- AI4-AI10 report kWh in their Units property because BACnet has no kVARh/kVAh unit; the real unit is shown here.
- Accumulated values (AI1-AI10, AI22-AI27, AI31-AI54, AI76-AI78) are kept through power loss.
- BI4-BI6 are all printed with the name 'Current_Error_A'; they are phases A, B and C.
- Writes to AVs take up to about 2 s to store; check Reliability before reading back.
- The meter also has three Trend Log objects (TL1-TL3); this guide doesn't list their names, so they are not included.
- AI28, AI30, AI77, AI79, AI80 and BI8 are reserved.
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 VerifEye Series 4100 bi-directional power and 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 Leviton VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP)
How many BACnet points does the Leviton VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP) have?
This list has 109 BACnet objects: 83 analog inputs, 11 analog values, 15 binary inputs. The exact set on a given unit depends on its firmware, installed options and configuration.
Which Leviton VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP) BACnet points are writable?
11 of the 109 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 Leviton VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP) BACnet documentation?
The source is Series 4100 Bi-Directional Compact Power and Energy Meter, BACnet MS/TP Support - Installation Guide, published free by Leviton at https://leviton.com/content/dam/leviton/lighting-controls/controls/product_documents/instruction_sheet/VerifEye-Submetering-Series-4100-BACnet-41OUB-4DUBM-English-User-Guide.pdf.
What are the minimum BACnet points to integrate the Leviton VerifEye Series 4100 bi-directional power and energy meter (BACnet MS/TP)?
Start with AI 1 KWh_Net (Net energy (import minus export), kWh); AI 2 KWh_Import (Imported energy, kWh); AI 3 KWh_Export (Exported energy, kWh); AI 11 KW_Total (Total real power, kW); AI 19 KW_Present_Demand (Present real power demand, kW); AI 14 PF_Total (Total power factor); AI 15 Volts_LL_Avg (Average line-to-line voltage); AI 17 Current Average (Average phase current, A); AI 83 Alarm_Bitmap (Alert bits BI1-BI15 as one number).
How do I check these points on the real VerifEye Series 4100 bi-directional power and 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 Leviton BACnet points lists
Source: Series 4100 Bi-Directional Compact Power and Energy Meter, BACnet MS/TP Support - Installation Guide. Object names, instances and units are reproduced as published; descriptions are our own.