neptronic TSUB Series Wall Mount Controller

Introduction

The TSUB Controller BACnet® Communication Module User Guide provides information about using the TSUB controller with BACnet communications feature. The BACnet communication protocol for building automation and control networks enables communication between client devices within a network. The controller provides a BACnet network interface between BACnet client devices and Neptronic Controller series devices. It uses the BACnet Master Slave/Token Passing (MS/TP) protocol at the BACnet MAC layer.

Pre-requisites

The BACnet communication user guide assumes that you are familiar with the concepts of BACnet and its terminology.

Advantages of BACnet

BACnet enabled controllers have the following advantages:

• Quick Message Transmission. The controller uses a synchronous implementation for BACnet messages making it quick and efficient. Each BACnet confirmed service request is answered as quickly as possible without using the Reply Postponed frame. The MS/TP implementation is performed within Tusage_delay of 15 minutes to ensure a Tusage_timeout value within 20 minutes.
• MS/TP Support. The controller supports a Full Master Node state machine for MS/TP. The Max_Master and the instances are configured to the device object through BACnet WriteProperty service or via the device’s Programming Mode. The MAC address and the MS/TP baud rate setting of 9600, 19200, 38400, or 76800 are also set through the BACnet Write Property service or via the device’s Programming Mode. In Programming mode, the device is configured through the device’s keypad. For more information about the WriteProperty, refer to Table 3 – Object Types Supported.
• BIBB Support. The controller functions the same way as the B-ASC type profile server and supports the specific BIBB as per their relevant definitions.
  • DS-RP-B
  • DS-RPM-B
  • DS-WP-B
  • DS-WPM-B
  • DM-DCC-B
  • DM-DDB-B
  • DM-DOB-B
  • DM-RD-B
  • DM-TS-B
  • DM-UTC-B
  • DS-COV-B
  • DS-COVP-B
  • SCHED-WS-I-B
• Object Support. The controller supports a fixed list of BACnet visible values, which appear as Present_Values of various BACnet standard object types in addition to a device object. For more information, refer to Table 3 – Object Types Supported.
• Alarms. The controller supports indication of various alarm conditions through value changes in properties of several objects. However, it does not generate BACnet event notifications.

BACnet Properties Configuration

To establish communication on the network and guarantee a unique ID of devices in a BACnet system, the following properties may have to be configured.

Table 1 – BACnet Properties Configuration

• Set to a unique address on the network between 000 and 254.
• The value can be set manually via the menu.
• The value can be set manually through the Write Property service to Device Object.proprietary-property#1000 MSTP-Address.
• The values from 128-254 represent MS/TP non-token passing slave devices.

Device Instance| Auto|

• The controller automatically configures its device instance to 153,000 + MAC address.
• The value can be set manually via the menu.
• The value can be set manually through the WriteProperty service to Device Object.Object_Identifier.
• The device’s Object_Identifier is a combination of the Device Object_Type (8) and the Device_Instance (0-4194302), therefore its decimal or hexadecimal representation tends to be incomprehensible.
• For example, the Device_Instance =1000 has an equivalent Object_Identifier of 0x020003E8 hexadecimal or 33555432 decimal.

Baud Rate| 0 = Auto|

• The controller configures its baud rate automatically by detecting the network upon connection.
• The value can be set manually from the available values of Auto, 9600, 19200, 38400, 76800.

Max_Master| 127|

• Configure Max_Master value to increase network efficiency when there are less than 127 devices on the network.
• The Max_Master value can be changed through the WriteProperty service to Device Object.Max_Master.

For more information, refer to the MAC Address and Max_Master section.

Device Object.Object_Name| Name of the device|

• Configure the name of the device through the WriteProperty service to Device Object.Object_Name. For example, TSUB.

Configuration Options

The following Configuration options enable you to configure and run the BACnet features of the controllers quickly.

Quick Setup

Configure the controller for BACnet communication without programming.

1. Ensure that no other device on the network has a MAC address of 0 (the controller’s default address).
2. Connect the controller to the network and power it up.
3. The controller automatically configures the baud rate and device instance allowing BACnet Property Configuration through the Write Property service. See Table 1 – BACnet Properties Configuration.
4. Repeat the steps for each controller.

Manual Setup

Configure the controller for BACnet communication with programming.

1. Access Operation Mode (jumper set to RUN position).
2. Press and hold both function buttons for 5 seconds to access the Quick Access menu.
3. Enter the password, 637.
4. Follow the instructions to configure the MAC Address, MAX Master, Device Instance, and Baud Rate, manually.
5. Disconnect the power to the controller, connect the controller to the network, and connect the power again.

MAC Address and Max_Master

The MAC address must be unique on the entire MS/TP network. However, having a unique MAC address and a high baud rate does not guarantee efficient operation of the controller and other MS/TP units on the MS/TP network. Some MAC address and Max_Master combinations are more efficient than others. BACnet requires token-passing units to occasionally “poll” for other masters based on the MAC address and Max_Master.
A poor combination of MAC addresses and Max_Master can lead to a slower network due to lost time polling for masters that are not present. Unless there are 126 other units on the MS/TP network, the default Max_Master value of 127 is not the most efficient choice for the controller. The Max_Master default value of 127 was selected to ensure that any master, specifically a BACnet client can be found when the controller is initially started.

Examples of MAC Address and Max_Master Configurations

The following are some of the examples to indicate the optimum combination of Mac address and Max_Master configurations to ensure a quick and efficient output.

Example 1

• MAC=0. Max_Master=127
• MAC=1, Max_Master=127

This configuration is slow and inefficient because every time either unit is required to find another master unit, it has to poll 126 units until it finds the right one to pass the token.

Example 2

• MAC=0. Max_Master=5
• MAC=1 to MAC=4 are not used
• MAC=5, Max_Master=5

This configuration is better than Example 1 but it is still not optimal. The Max_Master is set to the most efficient value but the gap between the two MAC addresses is high. Therefore, each unit must poll four units until it finds the right one to pass the token.

Example 3

• MAC=0, Max_Master=1
• MAC=2, Max_Master=2

This is an incorrect configuration. The MAC=0 will never find MAC=2 because it will never poll for the master MAC address=2.

Example 4

• MAC=0. Max_Master=3
• MAC=1, Max_Master=3
• MAC=2, Max_Master=3
• MAC=3, Max_Master=3

This is an efficient configuration as the units are numbered consecutively and the MAX_Master is set to the most efficient value. As a general guideline, the most efficient setup for an MS/TP network is one in which the units are consecutively numbered starting at MAC address 0 and having Max_Master=the maximum MAC address in the system. If consecutive numbering is not possible, then the next most efficient setup is one in which all units have Max_Master=the maximum MAC address in the system.

Copy Config

Copy and broadcast the entire configuration of a controller over the network to controllers of the same type using the

Copy Config feature.

1. Access Operation Mode (jumper set to RUN position).
2. Press and hold both function buttons for 5 seconds to access the Quick Access menu.
3. Enter the password, 637.
4. Scroll to Copy Config programming menu and select Yes. Follow the rest of the onscreen instructions.
   Note : A Copy Config can also be executed via BACnet. See AV.165, AV.166, AV.167, and BV.90 in Table 6 – Object Table Information: Analog Value (AV) and Table 9 – Object Table Information: Binary Value (BV) for details.

Network Reset

Reset the controller via BACnet using the Reinitialize Device service. The Reinitialize Device service can be accessed using the following password: nep.

The Reinitialize Device service has two types of reset such as:

• Warm Reset. The Warm Reset restarts the controller with actual configuration.
• Cold Reset. The Cold Reset restarts the controller with Factory configuration.
  Note : The Cold Reset erases the actual configuration during setting MSTP address. So, exercise caution while performing a Cold Reset.

Device Object Properties

The following table lists all the BACnet properties supported for the device object. The W indicates that the property is writable using the BACnet WriteProperty service.

Table 2 – Device Object Properties

• Programmable where the instance part of the Object_Identifier is in the range of 0-4194302
• The device instance must be unique system-wide
• The default value for the device instance=153000 (Vendor_Identifier*1000)

| W
Object_Name| TSUB, programmable up to 32 Bytes| W
Description| Programmable up to 32 Bytes (default: BACnet Unit Controller)| W
Object_Type| Device|
System_Status| Operational|
Vendor_Identifier| Always 153|
Vendor_Name| Always Neptronic|
Model_Name| Example, TSUB|
Firmware_Revision| currently, 1.06|
Application_Software_Version| currently, 1.05|
Protocol_Version| Always 1|
Protocol_Revision| Always 14|
DataBase_Revision| Default 0; incremented if Object Name and/or device ID change|
Max_APDU_Length_Accepted| Always 480|
Segmentation_Supported| (3) = No Segmentation|
APDU_Timeout| 6000| W
Number_of_APDU_Retries| Always 3|
Local_Time| 00:00:00| W
Local_Date| 01-Jan-2015 (Thu)| W
UtC_Offset| -300 minutes| W
Daylight_Savings_Status| False| W
Backup_Failure_Timeout| 300| W
Configuration_Files| File-1|
Last_Restore_Time| 2015-01-01 (Thu), 00:00:00:00|
Backup_And_Restore_State| IDLE|
Backup_Preparation_Time| 0|
Restore_Completion_Time| 0|
Restore_Preparation_Time| 0|
Protocol_Services_Supported|

• subscribeCOV
• atomicReadFile
• atomicWriteFile
• readProperty
• readPropertyMultiple
• WriteProperty
• writePropertyMultiple
• deviceCommunicationControl
• reinitializeDevice
• unconfirmedPrivateTransfer
• timeSynchronization
• who-Has
• who-Is
• subscribeCOVProperty

|
Protocol_Object_Types_Supported|

• analog-input
• analog-output
• analog-value
• binary-input
• binary-output
• binary-value
• device
• file
• program

|
Property| Value| Writable
---|---|---
|

• schedule
• pmulti-state-value

|
Object_List| 195|
Device_Address_Binding| Always empty|
Max_Master| Programmable in the range of 1-127 (default: 127)| W
Max_Info_Frames| Always 1|
Active_COV_Subscription| Empty by default. COV subscription will be lost on a power cycle.|
Property_List| List of properties that exist within the object.|
Proprietary property #1000|

• Programmable (default:0)
• Represents the MS/TP MAC address in the range of 0 to 254
• Values 128 to 254 represent MS/TP non-token passing slave devices

| W
Proprietary property #1001|

• Programmable (default: Auto)
• Represents the MS/TP Baud rate (unsigned type)
• Values are 0 (Auto), 9600, 19200, 38400, 76800
• Reading this property always returns the actual Baud rate

| W
Proprietary property #1002|

• Programmable (default: 15 minutes)
• Represents the period of time that an object in/out of service will automatically return to normal. Range = 0-120 minutes (unsigned type)
• Writing 0 means no automatic return to normal

| W

Object Types Supported

The following table lists all the BACnet properties supported for each object type. Most of the properties are locked. The exception is Present_Value, which represents the dynamic operating values of the device, and the Status_Flag,
Event_State, and Reliability properties, which reflect the availability of the Present_Value. Unless otherwise specified, properties are not changeable.

Table 3 – Object Types Supported

Object Type| Enabled| Optional Properties Supported| Writable Properties| Notes
---|---|---|---|---
Note: Writable properties are different for some objects. Refer to the respective Object Table information to know the writable property for objects.
Analog Input| R|

• Reliability
• Description
• Min_Present_Value
• Max_Present_Value
• Resolution
• Cov-increment

|

• Out_of_Service
• Cov-Increment

|

• If “Out of Service” is true, Present_Value and Status_Flag become writable properties. Refer to Out of Service Property section on page 7 for more information.
• Object will automatically return to Normal after a programmable period of time. Refer to Proprietary property #1002 of Device Object in

Table 2 – Device Object Properties.

Analog Value| R|

• Reliability
• Description
• Cov-Increment
• Priority_Array
• Relinquish_Default

|

• Present_Value
• Out_of_Service
• Cov-Increment

|

• Present_Value property is writable for every AV object except AV.20, AV.24, AV.35, AV.38, AV.50, AV.60, AV.78, AV.79, AV.87.
• Out_of_Service property is writable for AV.1, AV.3, AV.4, AV.70, AV.95.
• Refer to Out of Service Property section on page 7 for more information.
• Object will automatically return to Normal after a programmable period of time. Refer to Proprietary property #1002 of Device Object in Table 2 – Device Object Properties.

Analog Output| R|

• Description
• Reliability
• Min-Pres-Value
• Max-Pres-Value
• Resolution
• Cov-Increment

|

• Present_Value
• Cov-Increment

|
Binary Input| R|

• Reliability
• Active_Text
• Inactive_Text
• Description

| Out_of_Service|

• If “Out of Service” is true, Present_Value and Status_Flag become writable properties. Refer to Out of Service Property section on page 7 for more information.
• Object will automatically return to Normal after a programmable period of time. Refer to Proprietary property #1002 of Device Object in

Table 2 – Device Object Properties.

Object Type| Enabled| Optional Properties Supported| Writable Properties| Notes
---|---|---|---|---
Binary Value| R|

• Reliability
• Active_Text
• Inactive_Text
• Description
• Priority_Array
• Relinquish_Default

| Present_Value Out_of_Service|

• Present_V alue property is writable for every Binary Value object except BV.36 and BV.42.
• Out_of_Service property is writable for BV.30.
• Some objects are commandable. In such case, the priority-array and relinquish-default properties are available for BV.30.
• Object automatically returns to Normal after a programmable time. Refer to Proprietary property #1002 of Device Object in Table 2 – Device Object Properties.

Binary Output| R|

• Description
• Reliability
• Inactive-text
• Active-text

| Present_Value|
Device| R|

• Max_Master
• Max_Info_Frame
• Description
• active-cov-subscriptions

• 1000 (MSTP addr)

• 1001 (Baud rate)

• 1002 (Time out)

• Local_Time
• Local_Date
• UTC_Offset
• Daylight_Savings_Status
• Apdu_Timeout
• Backup_Failure_Timeout
• Configuration_Files
• Last_Restore_Time
• Backup_And_Restore_State
•  Backup_Preparation_Time
•  Restore_Completion_Time
• Restore_Preparation_Time

|

• Object_Identifier
• Object_Name
• Max_Master
• Description
• Local_Time
• Local_Date
• UTC_Offset
• Daylight_Savings_Status
• Apdu_Timeout
• Backup_Failure_Timeout

• 1000

• 1001

• 1002

|
Multi- State Value| R|

• Description
• Reliability
• States_Text
• Priority_Array
• Relinquish_Default

| Present_Value|

• Present_Value property is writable for every Multi State Value object except MSV.14, MSV.15.
• Out_of_Service property is not writable for MSV.

Program| R|

• Description
• Reliability

| Program_Change|

• Only LOAD and RESTART are supported for Program Change.
• Use LOAD to apply the new firmware.

File| R| Description|

• Archive
• File Size

| Only 0 is the accepted value to be written into file size.
Schedule| R|

• Description
• Weekly Schedule

|

• Effective Period
• Weekly Schedule
• Schedule Default
• Priority For Writing
• Out_of_Service

|

• If “Out of Service” is true, Present_Value becomes writable property.

Out of Service Property

Neptronic controllers offer the use of the Out of Service writable property. When the value of this property is set to True, it disconnects the object from the physical input, enabling you to input other values. This is useful for special applications or while troubleshooting. For example, you can ignore the temperature read from a sensor and input the desired temperature value in order to perform specific tests.
For security reasons, a timeout will set the Out of Service property back to False after 15 minutes. This value can be modified to between 0 and 120 minutes (For more information, see proprietary property #1002 in Table 2 – Device Object Properties).

Object Table Information

The TSUB Controller series use the following BACnet object tables, categorized on the basis of their ID. The type is the BACnet Object type, the instance is the BACnet Object.
Together, the type and instance form the BACnet Object_Identifier for an object according to the following C-language algorithm:

• object_identifier= (unsigned long)((unsigned long)type<<22)+instance

Analog Input (AI)

Table 4 – Object Table Information: Analog Input (AI)

• If a 10kΩ type III sensor is used, displays 0V Fault and Out of Service Status Flags are True
• If a 0-10V sensor is used, displays 0-10V Resolution 0.01 Volt
• If a dry contact is used, displays 0 or 1 No Units
  0 = Open, 1 = Close

AI.2| AnalogInput2| Sensor reading value on analog input 2.| Out of Service Cov Increment|

• If a 10kΩ type III sensor is used, displays 0V Fault and Out of Service Status Flags are True.
• If a 0-10V sensor is used, displays 0-10V Resolution 0.01 Volt
• If a dry contact is used, displays 0 or 1 No Units
  0 = Open, 1 = Close

AI.7| InternTemp| Internal temp sensor value (ITS) of the integrated sensor. Set MSV.21 value to Internal to use it as Control Temp.| Out of Service Cov Increment| 32°F to 122°F or 0°C to 50°C

Resolution 0.02°F/0.01°C

AI.8| InternHumidity| Humidity reading of on board humidity sensor.| Out of Service Cov Increment| 5% RH to 100% RH

Resolution 0.1% RH

Analog Output (AO)

Table 5 – Object Table Information: Analog Output (AO)

Analog Value (AV)

Table 6 – Object Table Information: Analog Value (AV)

object is commandable. The relinquish

default value will be equal to the Setpoint (AV.9) if MSV.21 is set to Network. Otherwise, it will be equal to the internal or external temperature depending on MSV.21 setting.

| Present Value Cov Increment| -40°F to 212°F or -40°C to 100°C

Resolution 0.02ºF/0.01ºC

AV.2| Cfg_NetworkTimeOut| Configuration time value. If MSV.21 is set to Network and no value has been sent via BMS for more than AV.2 time, the TSUB goes to OFF mode. AV.1 displays 999°C and object in Fault. If time is set to 0 mins, AV.1 is reset to AV.9 value.| Present Value Cov Increment| 0 to 60 minutes, Resolution 1 minute
AV.3| ExternTemp| Status of the extern temperature sensor (ETS). This temperature is the value read by the external temperature sensor when MSV.35 or MSV.36 is set to t10.0 or t10.V.| Out of Service Cov Increment| -40°F to 212°F or -40°C to 100°C

Resolution 0.02°F/0.01°C

AV.4| ChangeOverTemp| Status of the changeover temperature sensor (SENs). This is the value read by the changeover sensor when MSV.35 or MSV.36 is set to Changeover Sensor.| Out of Service Cov Increment| -40°F to 212°F or -40°C to 100°C

Resolution 0.02°F/0.01°C

AV.5| Cfg_InternTempOffset| Configuration value used to calibrate the integrated temp sensor of the TSUB (ITS).| Present Value Cov Increment| ±9°F/±5°C, Resolution 0.2ºF/0.1ºC
AV.6| Cfg_ExternTempOffset| Configuration value used to calibrate the external temp sensor (ETS).| Present Value Cov Increment| ±9°F/±5°C, Resolution 0.2ºF/0.1ºC
AV.7| Cfg_ExternTempMin| Configuration value that represents the minimum temp read by the sensor (minimum range value).| Present Value Cov Increment| -40ºF to 32ºF or -40ºC to 0ºC Resolution 1ºF/0.5ºC
AV.8| Cfg_ExternTempMax| Configuration value that represents the maximum temp read by the sensor (maximum range value).| Present Value Cov Increment| 122°F to 212°F or 50°C to 100°C

Resolution 1ºF/0.5ºC

AV.9| TempSetPoint| Configuration value used to set the actual user setpoint of the zone in occupied/day operation mode. This value may be locked to prevent the user from changing the setpoint (BV.2). This

object is commandable, relinquish default will be saved to non-volatile memory.

| Present Value Relinquish_Default

Cov Increment

| 50°F to 104°F or 10°C to 40°C (AV.10 to AV.11)

Resolution 1ºF/0.5ºC

AV.10| Cfg_MinSetPoint| Configuration value used to set the minimum temp setpoint of the zone in occupied/day operation mode, allowed by the user.| Present Value Cov Increment| 50ºF to 104ºF or 10ºC to 40ºC (50ºF/10ºC to AV.11) Resolution 1ºF/0.5ºC
AV.11| Cfg_MaxSetPoint| Configuration value used to set the maximum temp setpoint of the zone in occupied/day operation mode, allowed by the user.| Present Value Cov Increment| 50ºF to 104ºF or 10ºC to 40ºC (AV.10 to 104ºF or 40ºC), Resolution 1ºF/0.5ºC
AV.12| SetPointCoolNoOccNSB| Configuration value of the cooling setpoint when in night setback or unoccupied mode. Set BV.35 value to setpoint for the value to be active.| Present Value Cov Increment| 50ºF to 104ºF or 10ºC to 40ºC (AV.13 to 104ºF or 40ºC), Resolution 1ºF/0.5ºC
AV.13| SetPointHeatNoOccNSB| Configuration value of the heating setpoint when in night setback or unoccupied mode. Set BV.35 value to setpoint for the value to be active.| Present Value Cov Increment| 50ºF to 104ºF or 10ºC to 40ºC (50ºF/10ºC to AV.12) Resolution 1ºF/0.5ºC
ID| Name| Description| W?| Notes
---|---|---|---|---
AV.20| Heating1Demand| Status value that represents the heating demand for the Heating Ramp 1. This value is based on zone temp, zone setpoint and values set for the actual ramp.| Cov Increment| 0 to 100%, Resolution 0.5%
AV.21| Cfg_Heating1PropBand| Configuration value that represents the range through which the controller will modulate the heating output from 0 to 100% for Heating Ramp 1.| Present Value Cov Increment| 1ºF to 9ºF or 0.5ºC to 5.0ºC Resolution 1ºF/0.5ºC
AV.22| Cfg_Heating1DeadBand| Configuration value that represents the range at which the controller will not take action when temp is below the zone setpoint for Heating Ramp 1.| Present Value Cov Increment| 0ºF to 9ºF or 0.0ºC to 5.0ºC Resolution 0.2ºF/0.1ºC
AV.24| Heating2Demand| Status value that represents the heating demand for the Heating Ramp 2. This value is based on zone temp, zone setpoint and values set for the actual ramp.| Cov Increment| 0 to 100%, Resolution 0.5%
AV.25| Cfg_Heating2PropBand| Configuration value that represents the range through which the controller will modulate the heating output from 0 to 100% for Heating Ramp 2.| Present Value Cov Increment| 1ºF to 9ºF or 0.5ºC to 5.0ºC Resolution 1ºF/0.5ºC
AV.26| Cfg_Heating2DeadBand| Configuration value that represents the range at which the controller will not take action when temp is below the zone setpoint for Heating Ramp 2.| Present Value Cov Increment| 0ºF to 9ºF or 0.0ºC to 5.0ºC Resolution 0.2ºF/0.1ºC
AV.32| Cfg_IntegralTimeHeating| Configuration value that represents the reciprocal of the integral time in secs (1/I or repeats per second). To obtain a slower reaction time, the value of the integral must be small. To obtain a quicker reaction time, the integral value must be bigger.| Present Value Cov Increment| 0 to 250 seconds, Resolution 5 seconds
AV.35| Cooling1Demand| Status value that represents the cooling demand for the Cooling Ramp 1. This value is based on zone temp, zone setpoint and values set for the actual ramp.| Cov Increment| 0 to 100%, Resolution 0.5%
AV.36| Cfg_Cooling1PropBand| Configuration value that represents the range through which the controller will modulate the cooling output from 0 to 100% for Cooling Ramp 1.| Present Value Cov Increment| 1ºF to 9ºF or 0.5ºC to 5.0ºC Resolution 1ºF/0.5ºC
AV.37| Cfg_Cooling1DeadBand| Configuration value that represents the range at which the controller will not take action when temp is above the zone setpoint for Cooling Ramp 1.| Present Value Cov Increment| 0ºF to 9ºF or 0.0ºC to 5.0ºC Resolution 0.2ºF/0.1ºC
AV.38| Cooling2Demand| Status value that represents the cooling demand for the Cooling Ramp 2. This value is based on zone temp, zone setpoint and values set for the actual ramp.| Cov Increment| 0 to 100%, Resolution 0.5%
AV.39| Cfg_Cooling2PropBand| Configuration value that represents the range through which the controller will modulate the cooling output from 0 to 100% for Cooling Ramp 2.| Present Value Cov Increment| 1ºF to 9ºF or 0.5ºC to 5.0ºC Resolution 1ºF/0.5ºC
AV.40| Cfg_Cooling2DeadBand| Configuration value that represents the range at which the controller will not take action when temp is above the zone setpoint for Cooling Ramp 2.| Present Value Cov Increment| 0ºF to 9ºF or 0.0ºC to 5.0ºC Resolution 0.2ºF/0.1ºC
AV.45| Cfg_IntegralTimeCooling| Configuration value that represents the reciprocal of the integral time in secs (1/I or repeats per second). To obtain a slower reaction time, the value of the integral must be small. To obtain a

quicker reaction time, the integral value must be bigger.

| Present Value Cov Increment| 0 to 250 seconds, Resolution 5 seconds
AV.46| Cfg_CoolingAntiCycleDelay| Configuration value in mins to prevent the cooling outputs to cycle on and off. This is a protection feature used when cooling is done through compressors.| Present Value Cov Increment| 0 to15 minutes, Resolution 1 minute
AV.50| ChangeOverDemand| Status value that represents the changeover demand. This value is based on changeover temp, setpoint, and values set for the actual ramp.| Cov Increment| 0 to 100%, Resolution 0.5%
AV.51| Cfg_ChangeOverPropBand| Configuration value that represents the range through which the controller modulates the changeover output from 0 to 100%.| Present Value Cov Increment| 1ºF to 9ºF or 0.5ºC to 5.0ºC Resolution 1ºF/0.5ºC
AV.52| Cfg_ChangeOverDeadBand| Configuration value that represents the range at which the controller will not take action on the changeover output when above or below the changeover setpoint.| Present Value Cov Increment| 0ºF to 9ºF or 0.0ºC to 5.0ºC Resolution 1ºF/0.5ºC
AV.53| ChangeOverSetPoint| Configuration value of the temp at which the water that enters is considered to be in cooling or heating state.| Present Value Cov Increment| 50ºF to 104ºF or 10ºC to 40ºC Resolution 1ºF/0.5ºC
AV.56| Cfg_CL_HT_SwitchTimer| Configuration value of the time required before the changeover is permitted to take place (time in mins).| Present Value Cov Increment| 0 to 120 minutes, Resolution 1 minute
AV.58| CL_HT_SwitchTimerCount| Status value of the remaining time before the changeover is authorised. This value counts down from the time set in AV.56.| Cov Increment| 0 to 7,200 seconds, Resolution 1 second
ID| Name| Description| W?| Notes
---|---|---|---|---
AV.60| FanDemand| Status value that represents the fan demand. This value is based on the status value of other demands. Demand is also affected by the number of fan speed configured in MSV.25.| Cov Increment| 0 to 100%, Resolution 0.5%
AV.61| Cfg_FanAutoTimeOutDelay| Configuration value to prevent the cycling of the fan. If the fan was in operation, the TSUB will countdown from this value before stopping the fan.| Present Value Cov Increment| 0 to 255 seconds, Resolution 1 second
AV.62| Cfg_FanDampingFactor| Configuration value in secs that represents the damping factor for changing fan speed.| Present Value Cov Increment| 0 to 255 seconds, Resolution 1 second
AV.70| ExternHumidity| External humidity sensor value (Erh).| Out of Service Cov Increment| 5% RH to 95% RH, Resolution 0.1% RH
AV.71| Cfg_InternHumidityOffset| Configuration value used to calibrate the internal relative humidity sensor (irH). Only available on models with the humidity sensor.| Present Value Cov Increment| ± 5% RH, Resolution 0.1% RH
AV.72| Cfg_ExternHumidityOffset| Configuration value used to calibrate the external relative humidity sensor (Erh).| Present Value Cov Increment| ± 5%, Resolution 0.1% RH
AV.73| HumSetPoint| Configuration value used to set the actual user humidity setpoint of the zone in occupied/day operation mode. This value may be locked to prevent the user from changing the setpoint

(BV.26). This object is commandable, relinquish default will be saved to non- volatile memory.

| Present Value Relinquish_Default

Cov Increment

| 10% RH to 90% RH (AV.74 to AV.75)

Resolution 0.5% RH

AV.74| Cfg_HumMinSetPoint| Configuration value used to set the minimum relative humidity setpoint of the zone in occupied/day operation mode allowed by the user.| Present Value Cov Increment| 10% RH to 90% RH (10% to AV.75)

Resolution 0.5% RH

AV.75| Cfg_HumMaxSetPoint| Configuration value used to set the maximum relative humidity setpoint of the zone in occupied/day operation mode allowed by the user.| Present Value Cov Increment| 10% RH to 65% RH (AV.74 to 90%)

Resolution 0.5% RH

AV.76| DehumdifySPNoOccNSB| Configuration value of the highest relative humidity allowed when in night setback or unoccupied mode. Set BV.35 value to setpoint for the value to be active.| Present Value Cov Increment| 10% RH to 65% RH (AV.77 to 65%)

Resolution 0.5% RH

AV.77| HumidifySPNoOccNSB| Configuration value of the lowest relative humidity allowed when in night setback or unoccupied mode. Set BV.35 value to setpoint for the value to be active.| Present Value Cov Increment| 10% RH to 65% RH (10% to AV.76)

Resolution 0.5% RH

AV.78| HumidifyDemand| Status value that represents the humidifier modulation, based on relative humidity.| Cov Increment| 0% RH to 100% RH, Resolution 1% RH
AV.79| DehumidifyDemand| Status value that represents the dehumidification percentage, based on relative humidity.| Cov Increment| 0% RH to 100% RH, Resolution 1% RH
AV.80| Cfg_HumPropBand| Configuration value that represents the range through which the controller modulates the humidifier or dehumidification output from 0 to 100%.| Present Value Cov Increment| 3% RH to 10% RH, Resolution 0.5% RH
AV.81| Cfg_HumDeadBand| Configuration value that represents the range at which the controller will not take action when below or above the humidity setpoint.| Present Value Cov Increment| 0% RH to 5% RH, Resolution 0.5% RH
AV.85| Cfg_NSBOverrideDelay| Maximum configuration time in mins when in night setback mode and an override has been activated on the controller.| Present Value Cov Increment| 0 to 180 minutes, Resolution 15 minutes
AV.86| Cfg_NoOccOverrideDelay| Maximum configuration time in mins when in unoccupied mode and an override has been

activated on the controller. Each time the user presses the fan button, an increment of 15 mins is added up to this value.

| Present Value Cov Increment| 0 to 180 minutes, Resolution 15 minutes
AV.87| Cfg_NoOccOvCountDown| Time in mins before the state of the input changes from Occupied to Unoccupied mode. There is no time to change the state from Unoccupied to Occupied.| Cov Increment| 0 to 180 minutes (0-AV.86), Resolution 1 minute
AV.88| Cfg_OccupancyMinTime| Time in mins before the state of the input changes from Occupied to Unoccupied mode. Used when motion detector is not equipped with an internal timer.| Present Value Cov Increment| 0 to 720 minutes, Resolution 1 minute
AV.90| Cfg_UniversalInput1Delay| Configuration time in secs. Once the time has expired, the controller changes the state of the input.| Present Value Cov Increment| 0 to 3,600 seconds, Resolution 10 seconds
AV.91| Cfg_UniversalInput2Delay| See AV.90| Present Value Cov Increment| 0 to 3,600 seconds, Resolution 10 seconds
ID| Name| Description| W?| Notes
---|---|---|---|---
AV.95| ExternalCO2SensorValue| Status of the carbon dioxide sensor (CO2). This is the value read by the CO2 sensor in parts per

million (PPM) when MSV.35 or MSV.36 is set to CO2 sensor. AV.96 (Range) and AV.97 (Setpoint must be configured for proper reading).

| Out of Service Cov Increment| 0 to 5,000 PPM, Resolution 1 PPM
AV.96| CO2ControlValue| Status value that represents the current value of CO2 (PPM).| COV Increment| 0 to AV.97, Resolution 1 PPM
AV.97| Cfg_CO2Range| Configuration value that represents the maximum range of the CO2 sensor (PPM).| Present Value Cov Increment| 100 to 5,000 PPM, Resolution 50 PPM
AV.98| CO2Setpoint| Configuration value that represents the maximum limit of CO2 concentration before the TSUB sends an alarm.| Present Value Cov Increment| 100 to 2,000 PPM, Resolution 10 PPM
AV.103| Cfg_AnalogOutput2Min| This value represents the minimum control signal of the controlled element.

If the signal is 0-10Vdc, then the minimum value is 0 Volts and if the signal is 2-10 Vdc, the minimum value is 2 Volts. This value is the 0 position at 0% demand. If set at 2 Volts, a 2 Volt is

applied continuously even when there is no demand. It is not used to set the minimum starting activation position.

| Present Value Cov Increment| 0 Volts to 10 Volts (0 to AV.104)

Resolution 0.1 Volt

AV.104| Cfg_AnalogOutput2Max| This value represents the maximum control signal of the controlled element. If signal is 0-10Vdc or 2-10Vdc, then the maximum value is 10 Volts. It can also be used to limit the maximum output of the controller. If the control signal is 0-10Vdc and the maximum voltage value is set to 8 Volts,

the controlled element will never go over 80% of its total capacity.

| Present Value Cov Increment| 0 Volts to 10 Volts (AV.103 to 10)

Resolution 0.1 Volt

AV.105| Cfg_AnalogOutput3Min| See AV.103| Present Value Cov Increment| 0 Volts to 10 Volts (0 to AV.106)

Resolution 0.1 Volt

AV.106| Cfg_AnalogOutput3Max| See AV.104| Present Value Cov Increment| 0 Volts to 10 Volts (AV.105 to 10)

Resolution 0.1 Volt

AV.109| Cfg_MinCoolHeat1Position| Configuration value in percentage at which the controller sets the CH1 output during heating, provided another output has also been set to heating.| Present Value Cov Increment| 0% to 100%, Resolution 1%
AV.125| Cfg_BinaryOutput3ClosePos| Configuration value that indicates the percentage of demand at which the contact closes to energize the controlled element.| Present Value Cov Increment| 15% to 80%, Resolution 1%
AV.126| Cfg_BinaryOutput3OpenPos| Configuration value that indicates the percentage of demand at which the contact opens to de- energize the controlled element.| Present Value Cov Increment| 0% to 76% (0 to BO3closepos-4%), Resolution 1%
AV.127| Cfg_BinaryOutput3ContactDelay| Configuration value in mins to add a delay before allowing the output to change from inactive to active state.| Present Value Cov Increment| 0 to 15 minutes, Resolution 1 minute
AV.130| Cfg_BinaryOutput4ClosePos| See AV.125| Present Value Cov Increment| 15% to 80%, Resolution 1%
AV.131| Cfg_BinaryOutput4OpenPos| See AV.126| Present Value Cov Increment| 0% to 76% (0 to BO4closepos-4%), Resolution 1%
AV.132| Cfg_BinaryOutput4ContactDelay| See AV.127| Present Value Cov Increment| 0 to 15 minutes, Resolution 1 minute
AV.133| Cfg_BinaryOutput5ClosePos| See AV.125| Present Value Cov Increment| 15% to 80%, Resolution 1%
AV.134| Cfg_BinaryOutput5OpenPos| See AV.126| Present Value Cov Increment| 0% to 76% (0 to BO5closepos-4%), Resolution 1%
AV.135| Cfg_BinaryOutput5ContactDelay| See AV.127| Present Value Cov Increment| 0 to 15 minutes, Resolution 1 minute
AV.136| Cfg_BinaryOutput6ClosePos| See AV.125| Present Value Cov Increment| 15% to 80%, Resolution 1%
ID| Name| Description| W?| Notes
---|---|---|---|---
AV.137| Cfg_BinaryOutput6OpenPos| See AV.126| Present Value Cov Increment| 0% to 76% (0 to BO6closepos-4%), Resolution 1%
AV.138| Cfg_BinaryOutput6ContactDelay| See AV.127| Present Value Cov Increment| 0 to 15 minutes, Resolution 1 minute
AV.139| Cfg_BinaryOutput7ClosePos| See AV.125| Present Value Cov Increment| 15% to 80%, Resolution 1%
AV.140| Cfg_BinaryOutput7OpenPos| See AV.126| Present Value Cov Increment| 0% to 76% (0 to BO7closepos-4%), Resolution 1%
AV.141| Cfg_BinaryOutput7ConatctDelay| See AV.127| Present Value Cov Increment| 0 to 15 minutes, Resolution 1 minute
AV.151| Cfg_FloatingBO3/BO7 Timer| Configuration value that represents the time required by the valve actuator to complete a stroke. Value required only when MSV.79 BO3 Signal Type is set to floating.| Present Value Cov Increment| 15 to 250 seconds, Resolution 5 seconds
AV.156| FloatingOutputBO3/BO7| Status value to show the floating signal demand. This value may be overridden. Activated only if BO3 Signal Type MSV.79 is set to floating.| Present Value Cov Increment| 0% to 100%, Resolution 0.1%
AV.165| CopyCfgStartAddress| Represents the first address in the range of copied controllers while using the Copy Config option.| Present Value Cov Increment| 0 to 254, Resolution 1 No unit
AV.166| CopyCfgEndAddress| Represents the last address in the range of copied controllers while using the Copy Config option.| Present Value Cov Increment| 0 to 254, Resolution 1 No unit
AV.167| CopyCfgResult| Value is used to verify whether the copy to the controller’s operation was successful or has failed while using the Copy Config option.| Present Value Cov Increment| 0 to 254, Resolution 1 No unit
AV.185| PressureSensorValue| Pressure sensor value in Pascals. If the value is higher than 10,000, the value will be divided by 100 and shows a decimal point. For example, 10,000 will be 100.0 and 10050 will be 100.5.| Present Value Cov Increment| 0 to AV.186, Resolution 1 or 0.1 (if value > 10000) Pa
AV.186| Cfg_PressureSensorRange| The maximum range for pressure. If the value is higher than 10,000, the value will be divided by 100 and shows a decimal point. For example, 10,000 will be 100.0 and 10050 will be 100.5.| Present Value Cov Increment| 200 to 200.0 Pa, Resolution 1 or 0.1 (if value >

10000. Pa

AV.190| VFDPressureLoop| Actual VFD Pressure loop.| Present Value Cov Increment| 0% to 100%, Resolution 1%
AV.191| Cfg_VFDPressureSetPoint| Setpoint value for VFD pressure. If the value is higher than 10,000, the value will be divided by100 and shows a decimal point. For example, 10,000 will be 100.0 and 10050 will be 100.5.| Present Value Cov Increment| 100 to AV.186, Resolution 1 or 0.1 (if value > 10000) Pa
AV.192| Cfg_VFDPressureDeadBand| Dead band value for VFD pressure.| Present Value Cov Increment| 0 to 100 Pa, Resolution 1 Pa
AV.193| Cfg_VFDPressurePropBand| Proportional band value for VFD pressure.| Present Value Cov Increment| 100 to 500 Pa, Resolution 1 Pa
AV.194| Cfg_VFDPressureIntegralTime| VFD pressure integral seconds.| Present Value Cov Increment| 0 to 250 seconds, Resolution 5 seconds
AV.200| VFDTempCoolLoop| Actual VFD temperature loop while cooling.| Present Value Cov Increment| 0% to 100%, Resolution 1%
AV.201| VFDTempHeatLoop| Actual VFD temperature loop while heating.| Present Value Cov Increment| 0% to 100%, Resolution 1%
AV.202| Cfg_VFDTempSetPoint| VFD temperature setpoint.| Present Value Cov Increment| 50ºF to 104ºF or 10.0ºC to 40.0ºC Resolution 1ºF/ 0.5ºC
AV.203| Cfg_VFDTempDeadBand| VFD temperature dead band value.| Present Value Cov Increment| 0ºF to 9ºF or 0.0ºC to 5.0ºC Resolution 0.2ºF/ 0.1ºC
ID| Name| Description| W?| Notes
---|---|---|---|---
AV.204| Cfg_VFDTempPropBand| VFD temperature proportional band value.| Present Value Cov Increment| 1ºF to 9ºF or 0.5ºC to 5.0ºC Resolution 0.2ºF/ 0.1ºC
AV.205| Cfg_VFDTempIntegralTime| VFD temperature integral seconds.| Present Value Cov Increment| 0 to 250 seconds, Resolution 5 seconds
AV.206| CloseOffVoltage| Configuration value of the voltage required in order to close the 6-way valve.| Present Value Cov Increment| 0 to 11V, Resolution 0.1 V
AV.207| MinCoolingVoltage| Configuration value of the voltage required for the 6-way valve to start cooling.| Present Value Cov Increment| 0 to 11V, Resolution 0.1 V
AV.208| MinHeatingVoltage| Configuration value of the voltage required for the 6-way valve to start heating.| Present Value Cov Increment| 0 to 11V, Resolution 0.1 V
AV.210| DeltaTemperature| Status value of the difference between the inlet and outlet temperature.

The inlet temperature will be set to the value defined by AV.1 if none of the AIs are set to Delta Temp Inlet 10K or Delta Temp Inlet 0-10. If none of the AIs are set to Delta Temp Outlet 10K, Delta Temp Outlet 0-10 or if a Delta Temperature Input is in fault, the present value of AV.210

will be set to the value defined by AV.211.

| Out of Service| 10.4°F to 53.6°F or -12°C to 12°C,

Resolution 0.018°F or 0.01°C

AV.211| DeltaTempSetPoint| Configuration value of the setpoint for the delta temperature control mode.| Present Value| 10.4°F to 53.6°F or -12°C to 12°C,

Resolution 0.018°F or 0.01°C

AV.212| DeltaTempInlet| Status value of the delta inlet temperature.| Out of Service| -40°F to 212°F or -40°C to 100°C

Resolution 0.018°F or 0.01°C

AV.213| DeltaTempOutlet| Status value of the delta outlet temperature.| Out of Service| -40°F to 212°F or -40°C to 100°C

Resolution 0.018°F or 0.01°C

AV.227| PulseOutput3| Status value to show the pulse signal demand. This value may be overridden. Activated only if BO3 Signal Type is set to pulsing.| Present Value Cov Increment| 0% to 100%, Resolution 0.1%
AV.228| PulseOutput4| Status value to show the pulse signal demand. This value may be overridden. Activated only if BO4 Signal Type is set to pulsing.| Present Value Cov Increment| 0% to 100%, Resolution 0.1%
AV.229| PulseOutput5| Status value to show the pulse signal demand. This value may be overridden. Activated only if BO5 Signal Type is set to pulsing.| Present Value Cov Increment| 0% to 100%, Resolution 0.1%
AV.230| PulseOutput6| Status value to show the pulse signal demand. This value may be overridden. Activated only if BO6 Signal Type is set to pulsing.| Present Value Cov Increment| 0% to 100%, Resolution 0.1%
AV.231| PulseOutput7| Status value to show the pulse signal demand. This value may be overridden. Activated only if BO7 Signal Type is set to pulsing.| Present Value Cov Increment| 0% to 100%, Resolution 0.1%
AV.240| UserBacklightSetPoint| Setpoint for backlight setting in the user mode. In the user mode, the TSUB unit is in operation by the user.| Present Value| 0% to 100%, Resolution 1%
AV.241| OccupancyBacklightSetPoint| Setpoint for the backlight setting in the occupied mode. In the occupied mode, the TSUB unit is idle but the occupancy state is active.| Present Value| 0% to 100%, Resolution 1%
AV.242| UnoccupancyBacklightSetPoint| Setpoint for the backlight setting in the unoccupied mode. In the unoccupied mode, the TSUB unit is idle but the occupancy state is inactive.| Present Value| 0% to 100%, Resolution 1%

Binary Input (BI)

Table 7 – Object Table Information: Binary Input (BI)

activated 1 = Relay was activated

Binary Output (BO)

Table 8 – Object Table Information: Binary Output (BO)

Binary Value (BV)

Table 9 – Object Table Information: Binary Value (BV)

If set to (0), the temp will be in Celsius scale. If set to (1), the temp will be in Fahrenheit scale.

| Present Value| 0 = Celsius, 1 = Fahrenheit
BV.2| Cfg_TempSetPointLock| Configuration to lock the zone setpoint and prevent users from changing the value. (0) Disable setpoint lock, (1) Enable setpoint lock.| Present Value| 0 = Disable, 1 = Enable
BV.3| Cfg_UserSysOffMode| Configuration to allow users to turn off the controller. (0) Enable – user can turn off the controller,

(1) Disable – prevents the user from turning off the controller.

| Present Value| 0 = Enable, 1 = Disable
BV.4| Cfg_TempUnitTstat| Configuration of the temp units used on TSUB. If set to (0), the temp will be in Celsius scale. If set to (1), the temp will be in Fahrenheit scale.| Present Value| 0 = Celsius, 1 = Fahrenheit
BV.5| Cfg _FreezeProtection| Configuration value to enable or disable the automatic activation of the heating outputs when zone temp is at 4°C (39.2°F) and will deactivate when zone temp is at 5°C (41°F).| Present Value| 0 = Off, 1 = On
ID| Name| Description| W?| Notes
---|---|---|---|---
BV.10| Cfg_Heating1RampLock| Configuration value used to lock the heating ramp 1 even when a heating demand is active.| Present Value| 0 = Off, 1 = On
BV.11| CfgHeating2RampLock| Configuration value used to lock the heating ramp 2 even when a heating demand is active.| Present Value| 0 = Off, 1 = On
BV.13| Cfg CoolingRampLock| Configuration value used to lock the cooling ramp even when a cooling demand is active.| Present Value| 0 = Off, 1 = On
BV.17| Cfg_ChangeOverRampLock| Configuration value used to lock the changeover ramp even when a cooling or heating demand is active.| Present Value| 0 = Off, 1 = On
BV.20| Cfg_UserFanAutoMode| Configuration value to enable or disable the automatic fan option. If set to (0) Enabled, the user has the option to let the TSUB decide the fan speed automatically. If set to (1) Disable, the user

must set the fan speed manually.

| Present Value| 0 = Enable, 1 = Disable
BV.21| Cfg_FanSpeedOption| Configuration value to select between the Standard (Neptronic) and Advanced (OE1) fan speed specifications.| Present Value| 0 = Standard, 1 = Advanced
BV.22| Cfg_UserSysFanMode| Configuration value to enable or disable the fan option in MSV.1. If set to (1) Enable and BV.21 is set to (1) Advanced, the fan option will appear in MSV.1. If set to (0) Disable, the MSV.1 will not have fan option.| Present Value| 0 = Disable, 1 = Enable
BV.23| Cfg_HideFanDisplay| Configuration value to hide or show the fan symbol displayed on the controller.| Present Value| 0 = Yes, 1 = No
BV.25| Cfg_HumControlSource| Configuration value that controls the humidity source, either internal or external. Only available on models with the humidity sensor.| Present Value| 0 = Intern Sensor, 1 = Extern Sensor
BV.26| Cfg_HumSetPointLock| Configuration value to prevent the user from changing the relative humidity setpoint.| Present Value| 0 = Disable, 1 = Enable
BV.27| Cfg_HumidifyRampLock| Configuration value used to lock the humidification ramp even when a humidification demand is active.| Present Value| 0 = Off, 1 = On
BV.28| Cfg_DehumidifyRampLock| Configuration value used to lock the dehumidification ramp even when a dehumidification demand is active.| Present Value| 0 = Off, 1 = On
BV.30| ChangeOverMode| Status value of the actual changeover mode (0) Cooling, (1) Heating. Note that this value can be set via BACnet or locally with MSV.10.| Present Value Out of Service| 0 = Cooling, 1 = Heating
BV.35| Cfg_NightorNoOccMode| Configuration to determine the action of the TSUB when in night setback or no occupancy mode. When set to (0) setpoint, the TSUB will maintain the setpoint values of AV.12 & AV.13. If set to (1)

OFF, the TSUB will turn off and will not consider any setpoints.

| Present Value| 0 = Setpoint, 1 = OFF
BV.36| AL_ DirtyFilter| Status value to inform if a filter change is required. (0) No, (1) Yes| Read Only| 0 = No, 1 = Yes
BV.37| AL_FlowSwitch| Status value to inform if an airflow alarm is active. (0) No, (1) Yes| Read Only| 0 = No, 1 = Yes
BV.38| AL_Override| Status value to inform if an override is active. (0) No, (1) Yes| Read Only| 0 = No, 1 = Yes
BV.39| AL_WindowOpened| Status value to inform that a window has been opened. (0) No, (1) Yes| Read Only| 0 = No, 1 = Yes
BV.40| AL_DoorOpened| Status value to inform that a door has been opened. (0) No, (1) Yes| Read Only| 0 = No, 1 = Yes
BV.41| AL_OverHeat| Status value to inform if a heat/reheat with fan override is active. (0) No, (1) Yes| Read Only| 0 = No, 1 = Yes
BV.42| AL_SelectorSwitchStatus| Status value to inform if the selector switch is in (0) Remote mode, (1) Local mode.| Read Only| 0 = Remote mode, 1 = Local mode
ID| Name| Description| W?| Notes
---|---|---|---|---
BV.45| Cfg_AnalogInput1Contact| Configuration to change the contact’s normal position. Input can be set to (0) Normally Opened or

(1) Normally Closed.

| Present Value| 0 = Norm Open, 1 = Norm Close
BV.46| Cfg_AnalogInput2Contact| See BV.45| Present Value| 0 = Norm Open, 1 = Norm Close
BV.49| Cfg_WindowOpenedMode| Configuration to determine the action of the TSUB when window is open. When set to (0) setpoint,

the TSUB will maintain the setpoint values of AV.12 & AV.13. If set to (1) OFF, the TSUB will turn off and will not consider any setpoints.

| Present Value| 0 = Setpoint, 1 = OFF
BV.50| Cfg_DoorOpenedMode| Configuration to determine the action of the TSUB when door is open. When set to (0) setpoint, the TSUB will maintain the setpoint values of AV.12 & AV.13. If set to (1) OFF, the TSUB will turn off and will not consider any setpoints.| Present Value| 0 = Setpoint, 1 = OFF
BV.56| Cfg_AnalogOutput2Direction| Configuration of the analog output direction. When set to (0) Direct, the signal ramp is configured from 0-10Vdc. When set to (1) Reverse, the signal ramp is configured from 10-0Vdc.| Present Value| 0 = Direct, 1 = Reverse
BV.57| Cfg_AnalogOutput3Direction| See BV.56| Present Value| 0 = Direct, 1 = Reverse
BV.62| Cfg_BinaryOutput3Direction| Configuration of the binary output direction. When set to (0) Direct, the contact is considered Normally Opened. When set to (1) Reverse, the contact is considered Normally Closed.| Present Value| 0 = Direct, 1 = Reverse
BV.63| Cfg_BinaryOutput4Direction| See BV.62| Present Value| 0 = Direct, 1 = Reverse
BV.64| Cfg_BinaryOutput5Direction| See BV.62| Present Value| 0 = Direct, 1 = Reverse
BV.65| Cfg_BinaryOutput6Direction| See BV.62| Present Value| 0 = Direct, 1 = Reverse
BV.66| Cfg_BinaryOutput7Direction| See BV.62| Present Value| 0 = Direct, 1 = Reverse
BV.75| Cfg_FloatingBO3/BO4Direction| Configuration of the binary contact normally state (Normally Open, Normally Close) when MSV.79 VO3 Signal Type is set to floating. This object affects the valve actuator rotation. When set to (0)

Direct, BO3 closes the valve and BO4 opens the valve. When set to (1) Reverse, BO3 opens the valve and BO4 closes the valve.

| Present Value| 0 = Direct, 1 = Reverse
BV.76| Cfg_FloatingBO5/BO6Direction| Configuration of the binary contact normal state (Normally open, Normally close) when MSV. 81 BO3 Signal Type is set to floating. This object affects the valve actuator rotation. When set to (0) Direct, BO5 closes the valve and BO6 opens the valve. When set to (1) Reverse, BO6 opens the

valve and BO6 closes the valve.

| Present Value| 0 = Direct, 1 = Reverse
BV.85| Cfg_ServiceDisplayAddress| When activated, the TSUB lights up and displays the MSTP address. It remains active until deactivated via BACnet or upon cycling power to the controller. Useful when troubleshooting and/or servicing the controller.| Present Value| 0 = Off, 1 = On
BV.86| Cfg_KeyPadUpperLeftLock| If object is ON, the button is inactive in RUN mode but is active in the PRG mode via the TSUB. Button is used to change the fan speed.| Present Value| 0 = Off, 1 = On

If set to “On”, functionality of these buttons will not be available.

BV.87| Cfg_KeyPadBottomLeftLock| If object is ON, the button is inactive in RUN mode but is active in the PRG mode via the TSUB. Button is used to change temp control modes.| Present Value| 0 = Off, 1 = On

If set to “On”, functionality of these buttons will not be available.

BV.88| Cfg_KeyPadArrowsLock| If object is ON, the button is inactive in RUN mode but is active in the PRG mode via the TSUB. Buttons are used to change the setpoint.| Present Value| 0 = Off, 1 = On

If set to “On”, functionality of these buttons will not be available.

BV.89| Cfg_ProgramModeLock| If object is ON, all buttons are inactive and PRG mode is not accessible via the TSUB.| Present Value| 0 = Off, 1 = On
ID| Name| Description| W?| Notes
---|---|---|---|---
BV.90| CopyCfgExecute| When using Copy Config, this value is used to start the copy to other controllers.| Present Value| 0 = No, 1 = Yes
BV.91| Cfg_ActivateSchedule| Configuration to activate the schedule. The schedule is configurable via BACnet or Modbus. If no schedule is configured, the mode will always be occupied. The time and day will be displayed on

the TSUB.

| Present Value| 0 = No, 1 = Yes
BV.105| Cfg_AnalogInput1MinVolt| Minimum voltage for Analog Input 1.| Present Value| 0 = 0 Volt, 1 = 2 Volt
BV.106| Cfg_AnalogInput2MinVolt| Minimum voltage for Analog Input 2.| Present Value| 0 = 0 Volt, 1 = 2 Volt
BV.110| Cfg_VFDTempInput| Source for VFD temperature control.| Present Value| 0 = InternSensor, 1 = ExternSensor
BV.111| Cfg_DeltaTempLogic| Configuration value to enable or disable the delta temperature control mode.| Present Value| 0 = Off, 1= On
BV.112| Cfg_DisplayHumidity| Configuration value to display or hide the humidity value.| Present Value| 0 = No, 1 = Yes
BV.113| Cfg_DispalyCO2| Configuration value to display or hide the CO2 value.| Present Value| 0 = No, 1 = Yes
BV.114| Cfg_VFDTempSetpointSource| Configuration value for the source for the VFD temperature setpoint. When set to (0)

VFDTempSetPoint, the setpoint defined by AV.202 will be used. When set to (1) TempSetPoint, the setpoint defined by AV.9 will be used.

| Present Value| 0 = VFDTempSetPoint, 1 = TempSetPoint
BV.116| Cfg_AnalogOutput2OffVoltage| Configuration value to set the analog output 2 voltage to either 0V or the minimum voltage set by AV.103 when MSV.1 is set to Off.| Present Value| 0 = Min, 1 = Off
BV.117| Cfg_AnalogOutput3OffVoltage| Configuration value to set the analog output 3 voltage to either 0V or the minimum voltage set by AV.105 when MSV.1 is set to Off.| Present Value| 0 = Min, 1 = Off

Multi State Value (MSV)

Table 10 – Object Table Information: Multi State Value (MSV)

changed via TSUB and/or BACnet. The options may vary based on the selection at BV.3, BV.21, BV.98, and MSV.20.

Auto: Controller mode changes automatically between heating and cooling in operation when there is a cooling or heating demand.

Heating: Controller is in heating (in operation only when there is a heating demand).

EMH: In this mode, the controller enables only the emergency heat output, the compressor output is disabled.

Cooling: Controller is in cooling (in operation only when there is a cooling demand).

Fan: In this mode, the control mode is OFF (no heat, no cool) and the fan operates at the speed selected by the user on the thermostat or via MSV.2.

Off: Controller does not respond to any demand.

Note: Use the text provided by the STATE TEXT property to find the appropriate option available in your configuration.

| Present Value| Auto [MSV.20 allows Auto Mode (1 or 5)]

Heating [MSV.20 allows Heating Mode (1, 2, or 4)] EMH [BV.95 and BV.98 = On and Enable (1) and MSV.20 allows Heating Mode (1, 2, or 4)]

Cooling [MSV.20 allows Cooling Mode (1, 3, or 4)] Fan [BV.21 = Advanced (1)] and BV.22 = Enable (1)] Off [BV.3 = Enable (0)]

MSV.2| UserFanSpeedSelect| Status of the actual fan speed. This value may be changed via the TSUB and/or BACnet.

(1)  Auto: Fan automatically changes speed, based on demand.

(2)  Low: Fan is limited to low fan speed.

(3)  Medium: Fan is limited to medium fan speed.

(4)  High: Fan is limited to high fan speed.

| Present Value| 1 = Auto

2 = Low

3 = Medium

4 = High

MSV.5| HumControlMode| Configuration value to authorize humidification and/or dehumidification in order to maintain relative humidity setpoints.

(1)  Auto: The TSUB will operate automatically to humidify or dehumidify, according to the demand.

(2)  Dehumidification: The TSUB is authorized only to dehumidify.

(3)  Humidification: The TSUB is authorized only to humidify.

(4)  OFF: The TSUB will not consider relative humidity setpoints and no action will be taken.

| Present Value| 1 = Auto

2 = Dehumidification

3 = Humidification

4 = OFF

MSV.10| Cfg_ChangeOverControlMode| Configuration that indicates the source of the changeover value.

(1)  Locally: Analog or binary input is configured in the TSUB and will execute the changeover with the set parameters.

(2)  Cooling: Changeover is sent and controlled by the BMS. No changeover will occur unless the BMS sends the signal to do so.

(3)  Heating: Changeover is sent and controlled by the BMS. No changeover will occur unless the BMS sends the signal to do so.

| Present Value| 1= Locally

2= Cooling

3= Heating

MSV.13| NsbOccCommand| Configuration to set the occupancy or night setback mode. This object is commendable, relinquish default will be saved to non- volatile memory.

(1)  Locally: Occupancy or Night setback is activated via a configured input wired to a timer or an occupancy sensor.

(2)  OFF: Forces the TSUB Off. Signal sent via BMS.

(3)  Occupancy: Forces the TSUB to occupied or day mode. Signal sent via BMS.

(4)  No Occupancy: Forces the TSUB to unoccupied or night setback mode. Signal sent via BMS.

| Present Value Relinquish_Default| If BI = Occupancy or Night Setback at MSV.35 and/or MSV.36

1 = Locally

2 = Off

3 = Occupancy/Day

4 = No Occupancy/Night

If BI = any option except Occupancy or Night Setback at MSV.35 and/or MSV.36

1 = Off

2 = Occupancy/Day

3 = No Occupancy/Night

(1)  Unoccupied: Zone is not occupied.

(2)  Occupied: Zone is occupied.

(3)  Override: Zone is unoccupied but put back to occupied mode for a maximum pre-determined time set at AV.86.

| Read Only| 1 = NoOccupancy

2 = Occupancy

3 = Override

MSV.15| NightSetBackStatus| Status that indicates the actual mode of the zone.

(1)  Day: Zone is in day operation mode.

(2)  Night: Zone is in night setback mode.

(3)  Override: Zone is in night setback mode but put back to day operation for a maximum pre- determined time set at AV.85.

| Read Only| 1 = Day

2 = Night

3 = Override

MSV.20| Cfg_Sequence Select| Configuration value to limit available options at MSV.1.

(1)  Auto: All modes available.

(2)  Heating: Only Heating.

(3)  Cooling: Only Cooling.

(4)  ON: Heating or Cooling.

(5)  Auto Lock: Only Auto.

| Present Value| 1 = Auto

2 = Heating

3 = Cooling

4 = HeatingOrCooling 5 = Auto Lock

MSV.21| Cfg_ TempControlSource| Configuration value to set the control temp to be used by the TSUB.

(1)  Network Sensor: AV.1 will use temp value sent via the BMS. See AV.2 for timeout safety feature (Net).

(2)  Intern Sensor: AV.1 will use the integrated temp sensor of the TSUB (ITS).

(3)  Extern Sensor: AV.1 will use the external temp sensor configured (ETS).

| Present Value| 1 = Network (Net) 2 = Internal (ItS) 3 = External (EtS)
MSV.25| Cfg_FanOperationType| Configuration value to set the number of fan speed available on the fan coil.

(1)  1 Speed: Fan coil has a one speed fan (wired to Low).

(2)  2 Speed: Fan coil has a two speed fan (wired to Medium).

(3)  3 Speed: Fan coil has a three speed fan (wired to High).

| Present Value| 1= 1Speed

2= 2Speeds

3= 3Speeds

MSV.26| Cfg_FanModeNoOccNight| Configuration value to set the fan speed for no occupancy or night setback mode.

(1)  Low: Fan is limited to low speed.

(2)  Medium: Fan is limited to medium speed.

(3)  High: Fan is limited to high speed.

(4)  Auto: Fan automatically changes speed, based on demand.

| Present Value| 1= Low

2= Medium

3= High

4 = Auto

MSV.27| Cfg_FanModeWindowOpened| Configuration value to set the fan speed mode when the window is open.

(1)  Low: Fan is limited to low speed.

(2)  Medium: Fan is limited to medium speed.

(3)  High: Fan is limited to high speed.

(4)  Auto: Fan automatically changes speed, based on demand.

| Present Value| 1= Low

2= Medium

3= High

4 = Auto

MSV.28| Cfg_FanModeDoorOpened| Configuration value to set the fan speed mode when the door is open.

(1)  Low: Fan is limited to low speed.

(2)  Medium: Fan is limited to medium speed.

(3)  High: Fan is limited to high speed.

(4)  Auto: Fan automatically changes speed, based on demand.

| Present Value| 1= Low

2= Medium

3= High

4 = Auto

2 = Extern Sensor 10k

3 = Change Over Sensor

4 = Ch Ov Contact Norm Cool 5 = Ch Ov Contact Norm Heat 6 = Outside Air Sensor

7 = Extern Sensor 0-10V 8 = CO2 0-10V

9 = Occupancy

10 = Night Set Back 11 = Override

12 = Window

13 = Door

14 = Dirty Filter 15 = Flow Switch 16 = Overheat

17 = Selector Switch 18 = Fan Feedback

19 = Humidity Sensor 0-10V

20 = Pressure Sensor 0-10V 21 = Extern Sensor TT012 22 = Delta Temp Inlet 10K 23 = Delta Temp Inlet 0-10 24 = Delta Temp Outlet 10K 25 = Delta Temp Outlet 0-10

(1) OFF: Controller does not use the input.
(2) Extern Sensor 10k: Controller uses a 10kΩ type III external temperature sensor.
(3) Change Over Sensor: Heating mode activates when the temperature read by the external sensor is above the Changeover Setpoint and cooling mode activates when the temperature read

by the external sensor is below the Changeover Setpoint.

(4) Ch Ov Contact Norm Cool: Heating mode activates when the contact is closed and cooling mode activates when the contact is opened.
(5) Ch Ov Contact Norm Heat: Cooling mode activates when the contact is closed and heating mode activates when the contact is opened.
(6) Outside Air Sensor: Controller uses a 10kΩ type III outside air sensor.
(7) Extern Sensor 0-10V: Controller uses a 0 to 10 Vdc external temperature sensor.
(8) CO2 0-10V: Controller uses a 0 to 10 Vdc CO2 sensor.
(9) Occupancy: Controller activates the Occupancy mode.
(10) Night Set Back: Controller activates the night set back mode.
(11) Override: Controller activates an alarm to indicate that there has been an override and the controller is forced into OFF mode.
(12) Window: Controller activates an alarm to indicate that the window is open. If this value is selected, BV.49 and MSV.27 will be available.
(13) Door: Controller activates an alarm to indicate that the door is open. If this value is selected, BV.50 and MSV.28 will be available.
(14) Dirty Filter: Controller activates an alarm to indicate that the filter is dirty.
(15) Flow Switch: Controller activates an alarm to indicate that there is no airflow.
(16) Overheat: Controller activates an alarm to indicate that the heating equipment has overheated. The controller shuts off the heating outputs.
(17) Selector Switch: Controller activates the Local mode. The controller shuts off fan outputs.
(18)  Fan Feedback: Controller senses the pulse feedback of the ECM motor.

(19)  Humidity Sensor 0-10V: Controller modulates the output based on the humidify demand.

(20)  Pressure Sensor 0-10V: Controller uses a 0 to 10Vdc pressure static sensor.

(21)  Extern Sensor TT012: Controller uses a 10kΩ type 24 external temperature sensor.

(22)  Delta Temp Inlet 10K: Controller uses a 10K type 3 temperature sensor and selects it as the inlet temperature in the ΔT control mode.

(23)  Delta Temp Inlet 0-10: Controller uses a 0 to 10 Vdc temperature sensor and selects it as the inlet temperature in the ΔT control mode.

(24)  Delta Temp Outlet 10K: Controller uses a 10K type 3 temperature sensor and selects it as the outlet temperature in the ΔT control mode.

(25)  Delta Temp Outlet 0-10: Controller uses a 0 to 10 Vdc temperature sensor and selects it as the outlet temperature in the ΔT control mode.

MSV.36| Cfg_AnalogInput2Type| See MSV.35| Present Value|
ID| Name| Description| W?| Notes
---|---|---|---|---
MSV.57| Cfg_AnalogOutput2Ramp| Configuration of the ramp used to modulate AO1 based on demand.

(1)  Off: The controller does not use the output.

(2)  Change Over With Fan: The controller modulates heating and cooling, as appropriate.

(3)  Cooling1With Fan: This ramp is used for cooling. The controller performs cooling based on the cooling proportional, integral, and dead band values.

(4)  Cooling2 With Fan: This ramp is used for cooling. The controller performs cooling based on the cooling proportional, integral, and dead band values.

(5)  Heating1 With Fan: This ramp is used for heating. The controller performs heating based on the heating proportional, integral, and dead band values.

(6)  Heating2 With Fan: This ramp is used for heating. The controller performs heating based on the heating proportional, integral, and dead band values.

(7)  Heating2: This ramp is used for heating. The controller performs heating based on the heating proportional, integral, and dead band values.

(8)  Cooling1Heating1 With Fan: The controller performs cooling regularly. If another output is set to heat, it performs heating regularly.

(9)  Humidify With Fan: The controller modulates the output based on the humidify demand.

(10)  CO2 Alarm: Carbon dioxide (CO2) alarm. The controller activates or deactivates the output based on carbon dioxide levels.

(11)  6 Way valve: The controller will modulate the 6-way valve based on the cooling or heating demand.

(12)  Delta Temperature: The controller will modulate the ΔT control based on the inlet and outlet temperature of the water inside the fan coil unit.

(13)  VFD/ECMTempLoopEnable: The controller will modulate the VFD or ECM fan based on the selected temperature input.

(14)  VFD Pressure Loop: The controller will modulate the static pressure based on the reading and the pressure setpoint.

If BV.95 Cfg_HeatPumpOption is set to Off, AO2 has an additional option:

(15)  Fan: The controller modulates the output according to AV. 60 Fan Demand.

| Present Value| 1 = Off

2 = Change Over With Fan 3 = Cooling1 With Fan

4 = Cooling2 With Fan 5 = Heating1 With Fan 6 = Heating2 With Fan 7 = Heating2

8 = Cooling1 Heating1 With Fan 9 = Humidify With Fan

10 = CO2 Alarm

11 = 6 Way valve

12 = Delta Temperature

13 = VFD/ECMTempLoopEnable 14 = VFD Pressure Loop

15 = Fan

MSV.58| Cfg_AnalogOutput2SignalType| Configuration of the analog output signal type.

(1)  Analog: Modulating signal based on the demand, scaled between the minimum and maximum control signal. It is affected by AV.103, AV.104 and BV.56.

(2)  On/Off: On/Off signal based on the demand, scaled between the minimum and maximum control signal. It is affected by AV.103, AV.104 and BV.56.

(3)  Pulsing: TPM signal based on the demand, scaled between the minimum and maximum control signal. It is affected by AV.103, AV.104 and BV.56.

| Present Value| 1 = Analog

2 = On-Off

3 = Pulsing

MSV.59| Cfg_AnalogOutput3Ramp| See MSV.57| Present Value| 1 = Off

2 = Change Over With Fan 3 = Cooling1 With Fan

4 = Cooling2 With Fan 5 = Heating1 With Fan 6 = Heating2 With Fan 7 = Heating2

8 = Cooling1 Heating1 With Fan 9 = Humidify With Fan

10 = CO2 Alarm 11 = 6 Way valve

12 = Delta Temperature

2 = On-Off

3 = Pulsing

MSV.72| Cfg_BinaryOutput3Ramp| Configuration of the ramp used to modulate BO1 based on demand. The ramp is fixed if BV.95 Cfg_HeatPumpOption is set to On.

(1)  Off: The controller does not use the output.

(2)  Change Over With Fan: The controller modulates heating and cooling, as appropriate.

(3)  Cooling1 With Fan: This ramp is used for cooling. The controller performs cooling based on the cooling proportional, integral, and dead band values.

(4)  Cooling2 With Fan: This ramp is used for cooling. The controller performs cooling based on the cooling proportional, integral, and dead band values.

(5)  Heating1 With Fan: This ramp is used for heating. The controller performs heating based on the heating proportional, integral, and dead band values.

(6)  Heating2 With Fan: This ramp is used for heating. The controller performs heating based on the heating proportional, integral, and dead band values.

(7)  Heating2: This ramp is used for heating. The controller performs heating based on the heating proportional, integral, and dead band values.

(8)  Cooling1Heating1 With Fan: The controller performs cooling regularly. If another output is set to heat, it performs heating regularly.

(9)  Humidify With Fan: The controller modulates the output based on the humidify demand.

(10)  CO2 Alarm: Carbon dioxide (CO2) alarm. The controller activates or deactivates the output based on carbon dioxide levels.

| Present Value| 1 = Off

2 = Change Over With Fan 3 = Cooling1 With Fan

4 = Cooling2 With Fan 5 = Heating1 With Fan 6 = Heating2 With Fan 7 = Heating2

8 = Cooling1Heating1 With Fan 9 = Humidify With Fan

10 = CO2 Alarm

MSV.73| Cfg_BinaryOutput4Ramp| If MSV.25 Cfg_FanOperationType is set to 3 speeds, (1) Fan: High speed contact. Else, see MSV.72.| Present Value|
MSV.74| Cfg_BinaryOutput5Ramp| If MSV.25 Cfg_FanOperationType is set to 3 speeds, (1) Fan: Medium speed contact. If MSV.25 Cfg_FanOperationType is set to 2 speeds, (1) Fan: High speed contact.

Else, see MSV.72.

| Present Value|
MSV.75| Cfg_BinaryOutput6Ramp| If MSV.25 Cfg_FanOperationType is set to 3 speeds, (1) Fan: Low speed contact.

If MSV.25 Cfg_FanOperationType is set to 2 speeds, (1) Fan: Medium speed contact. If MSV.25 Cfg_FanOperationType is set to 1 speed, (1) Fan: High speed contact.

If MSV.57 Cfg_AnalogOutput2Ramp is set to Fan, see MSV.72.

(11)  6 Way valve: The controller will modulate the 6-way valve based on the cooling or heating demand.

(12)  Delta Temperature: The controller will modulate the ΔT control based on the inlet and outlet temperature of the water inside the fan coil unit.

(13)  VFD/ECMTempLoopEnable: The controller will modulate the VFD or ECM fan based on the selected temperature input.

(14)  VFD Pressure Loop: The controller will modulate the static pressure based on the reading and pressure setpoint.

| Present Value| 1 = Off

2 = Change Over With Fan 3 = Cooling1 With Fan

4 = Cooling2 With Fan 5 = Heating1 With Fan 6 = Heating2 With Fan 7 = Heating2

8 = Cooling1Heating1 With Fan 9 = Humidify With Fan

10 = CO2 Alarm 11 = 6 Way valve

12 = Delta Temperature

13 = VFD/ECMTempLoopEnable 14 = VFD Pressure Loop

MSV.76| Cfg_BinaryOutput7Ramp| See MSV.72| Present Value|
ID| Name| Description| W?| Notes
---|---|---|---|---
MSV.79| Cfg_BinaryOutput3SignalType| Configuration of the output signal type.

(1)  Pulsing: TPM signal affected by MSV.72. Pulse is available for heating ramp 1 and 2 only.

(2)  On/Off: Digital output affected by AV.125, AV.126 and BV.62.

(3)  Floating: Modulating output affected by AV.151 and BV.75. Floating is available for cooling ramps and heating ramps. Option available for BO3 only. When BO3 is set to (3) floating, it automatically changes MSV.76 BinaryOutput7Ramp and MSV.83 BinaryOutput7SignalType to

match the configuration of BO3.

| Present Value| 1 = Pulsing

2 = On-Off

3 = Floating

MSV.80| Cfg_BinaryOutput4SignalType| See MSV.79| Present Value| 1 = Pulsing

2 = On-Off

MSV.81| Cfg_BinaryOutput5SignalType| See MSV.79| Present Value| 1 = Pulsing

2 = On-Off

MSV.82| Cfg_BinaryOutput6SignalType| See MSV.79| Present Value| 1 = Pulsing

2 = On-Off

MSV.83| Cfg_BinaryOutput7SignalType| See MSV.79| Present Value| 1 = Pulsing

2 = On-Off

MSV.95| Cfg_DisplayInfo| Configuration value of the information displayed on the TSUB.

(1)  Display Temp Demand: The TSUB will display the actual temp and cooling/heating demand.

(2)  Display Setpoint Demand: TSUB will display the actual setpoint and cooling/heating demand.

(3)  Display Temp: TSUB will display the actual temp but no demand.

(4)  Display Setpoint: TSUB will display the actual setpoint but no demand.

(5)  Display Off: TSUB display will be off (no display).

| Present Value| 1 = Temp and demand

2 = Setpoint and demand 3 = Temp only

4 = Setpoint only 5 = Off

MSV.96| Cfg_ValveSize| Configuration value of the valve size in inches for the 6-way valve.| Present Value| 1 = 1/2

2 = 3/4

3 = 1

Other

application memory. The controller will be reset and the firmware will be LOADED into the memory. Use only the binary file

provided by Neptronic.

| Program Change| Program Change, only LOAD (1) and RESTART (4) are supported
FIL.1| FirmwareBinaryFile| Firmware binary file. Set to LOAD to program the file in application memory. The controller

will be reset and the firmware will be LOADED into the memory. Use only the binary file provided by Neptronic.

| File Size Archive| File Size is accepted for 0 value only
SCH.1| OccupancySchedule| Weekly occupancy schedule to specify which occupancy state is active during specific periods of day. Write to Present Value of MSV.13.| Weekly Schedule Schedule Default Priority for Writing

Effective Period Out of Service

|

Customer Support

400 Lebeau blvd, Montreal, Qc, H4N 1R6, Canada
www.neptronic.com
Toll free in North America: 1-800-361-2308
Tel.: 514-333-1433
Fax: 514-333-3163
Customer service fax: 514-333-1091
Monday to Friday: 8:00am to 5:00pm (Eastern time)

References

• Neptronic | Home - Humidifier Distributor & HVAC Products
• Neptronic | Home - Humidifier Distributor & HVAC Products

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