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ProtoNode FPC-N34 and ProtoNode FPC-N35
Startup Guide
For Interfacing Harsco Industrial Patterson-Kelley
Products:
ENVI Control Systems, Love Controller and Nuro
To Building Automation Systems:
BACnet MS/TP, BACnet/IP, Modbus TCP/IP, Metasys N2
and LonWorks
APPLICABILITY & EFFECTIVITY
Explains ProtoNode FPC-N34 and FPC-N35 hardware and how to install it.
The instructions are effective for the above as of April 2015
Document Revision: 12
Hybrid-RS485
Template Revision: 29
Harsco Patterson Kelley’s ProtoNode Startup Guide
Technical Support:
Thank you for purchasing the ProtoNode for Harsco Industrial Patterson-Kelley.
Please call Harsco Industrial Patterson-Kelley for Technical support of the ProtoNode product.
SMC does not provide direct support. If Harsco Industrial Patterson-Kelley needs to escalate the
concern, they will contact Sierra Monitor Corporation for assistance.
Support Contact Information:
HIP-K Water Heaters, General Inquiries
155 Burson Street
East Stroudsburg,
Pennsylvania 18301
Harsco Industrial Patterson-Kelley Service:
570-476-7261
Email: [email protected]
Website: http://harscopk.com/
Page 2 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
A Quick Start Guide
1.
Methods of Configuration: (Section 1.2)

Auto-Discovery: See Figure 1 for table of RS-485 devices supporting Auto-Discovery.

Web Configurator: For RS-485 devices that cannot be Auto-Discovered, use browser to
connect to ProtoNode’s Web Configurator utility.
2.
Record the information about the unit. (Section 2.1)
3.
Set the device’s Modbus RTU serial settings (i.e. baud rate, parity, stop bits) and Modbus NodeID’s for each of the devices that will be connected to the ProtoNode. (Section 2.2)
4.
ProtoNode FPC-N34 units: Select the Field Protocol (BACnet MS/TP, BACnet/IP, Modbus TCP/IP
or Metasys N2) on the S Bank Dip Switches. (Section 2.3.1)
5.
Auto-Discovery Configurations: Enable the ProtoNode “Auto-Discovery” mode on DIP Switch S3.
(Section 2.3.2)
6.
BACnet MS/TP (FPC-N34): Set the MAC Address on DIP Switch Bank A. (Section 2.4.1)
7.
BACnet MS/TP or BACnet IP (FPC-N34): Set the BACnet Device Instance. (Section 2.4.2)
8.
Metasys N2 or Modbus TCP/IP (FPC-N34): Set the Node-ID. (Section 2.4.3)
9.
BACnet MS/TP (FPC-N34): Set the BAUD rate of the BACnet MS/TP Field Protocol on DIP Switch
Bank B. (Section 2.4.4)
10.
Connect ProtoNode FPC-N34’s 3 pin RS-485 port to the Field Protocol cabling,
or connect ProtoNode FPC-N35’s 2 pin LonWorks port to the Field Protocol cabling. (Section
3.1)
11.
Connect ProtoNode’s 6 pin RS-485 connector to the Modbus RS-485 network that is connected to
each of the devices. (Section 3.2)
12.
Connect Power to ProtoNode’s 6 pin connector. (Section 3.3)
13.
When power is applied it will take about 10 minutes for all the devices to be discovered, and the
configuration file to be built. Once Auto-Discovery is complete turn OFF the S3 DIP Switch to save
the configuration settings. (Section 4)
14.
Web Configurator Configurations: Use a browser to access the ProtoNode’s Web Configurator,
then select the devices that will be attached to ProtoNode and set the current Modbus Node-ID for
each these products. Once the devices are selected, the ProtoNode Automatically builds and loads
the Configuration for the devices. (Section 5)
15.
BACnet/IP or Modbus TCP/IP (FPC-N34): Use a browser to access the ProtoNode’s Web
Configurator to change the IP address. (Section 6)
16.
Reset Configurations: If you need to start over from the beginning of the installation process, you
can clear all Auto-Discovered and/or Web Configurator configurations. (Section 7)
17.
LonWorks (FPC-N35): The ProtoNode must be commissioned on the LonWorks Network. This
needs to be done by the LonWorks administrator using a LonWorks Commissioning tool. (Section
8)
Page 3 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
Certifications

BTL MARK – BACNET TESTING LABORATORY
The BTL Mark on ProtoNode RER is a symbol that indicates that a product has
passed a series of rigorous tests conducted by an independent laboratory
which verifies that the product correctly implements the BACnet features
claimed in the listing. The mark is a symbol of a high-quality BACnet product.
Go to http://www.BACnetInternational.net/btl/ for more information about the
BACnet Testing Laboratory. Click here for BACnet PIC Statement.

LONMARK CERTIFICATION
LonMark International is the recognized authority for certification, education,
and promotion of interoperability standards for the benefit of manufacturers,
integrators and end users. LonMark International has developed extensive
product certification standards and tests to provide the integrator and user with
confidence that products from multiple manufacturers utilizing LonMark
devices work together. FieldServer Technologies has more LonMark Certified
gateways than any other gateway manufacturer, including the ProtoCessor,
ProtoCarrier and ProtoNode for OEM applications and the full featured,
configurable gateways.
Page 4 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
TABLE OF CONTENTS
1
Introduction .......................................................................................................................................... 8
1.1
ProtoNode Gateway ....................................................................................................................... 8
1.2
Methods of Configuration – Harsco Industrial Patterson-Kelley’s Devices .................................... 9
1.3
Harsco Industrial Patterson-Kelley’s Devices and Point Count Available ...................................... 9
2
BACnet/LonWorks Setup for ProtoCessor ProtoNode FPC-N34/FPC-N35 .................................. 10
2.1
Record Identification Data ............................................................................................................ 10
2.2
Configuring Device Communications ........................................................................................... 11
2.2.1 Set Modbus COM setting on all of the devices connected to the ProtoNode ......................... 11
2.2.2 Set Modbus RTU Node-ID for each of the devices attached to the ProtoNode ..................... 11
2.3
Selecting the Desired Field Protocol and Enabling Auto-Discovery............................................. 12
2.3.1 Selecting Desired Field Protocol ............................................................................................. 12
2.3.2 Enabling Auto-Discovery ......................................................................................................... 13
2.4
Setting the MAC Address, Device Instance and Baud Rate ........................................................ 14
2.4.1 BACnet MS/TP (FPC-N34): Setting the MAC Address BACnet Network ............................... 14
2.4.2 BACnet MS/TP and BACnet/IP (FPC-N34): Setting the Device Instance .............................. 15
2.4.3 Metasys N2 or Modbus TCP/IP (FPC-N34): Setting the Node-ID .......................................... 15
2.4.4 BACnet MS/TP (FPC-N34): Setting the Baud Rate ................................................................ 16
3
Interfacing ProtoNode to Devices .................................................................................................... 17
3.1
ProtoNode FPC-N34 and FPC-N35 Showing Connection Ports .................................................. 17
3.2
Device Connections to ProtoNode ............................................................................................... 18
3.2.1 Connecting NURO Modbus RTU Boilers to the ProtoNode’s RS-485 .................................... 18
3.2.2 Connecting LOVE Modbus RTU Boilers to the ProtoNode’s RS-485 ..................................... 18
3.2.3 Connecting ENVI Modbus RTU Boilers to the ProtoNode’s RS-485 ...................................... 18
3.2.4 Biasing the Modbus RS-485 Network ..................................................................................... 19
3.2.5 End of Line Termination Switch for the Modbus RS-485 port on the ProtoNode ................... 20
3.3
BACnet MS/TP or Metasys N2 (FPC-N34): Wiring Field Port to RS-485 Network ...................... 21
3.4
LonWorks (FPC-N35): Wiring Field Port to LonWorks Network ................................................... 21
3.5
Power-Up ProtoNode.................................................................................................................... 22
4
Auto-Discovery: Saving RS-485 device configurations................................................................. 23
4.1
Auto-Discovery with DIP Switch Method: After Completion – Turn Off to Save Configuration .... 23
5
Use ProtoNode’s Web Configurator to Select Device Profiles ..................................................... 24
5.1
Connect the PC to ProtoNode via the Ethernet Port .................................................................... 24
5.2
Connecting to ProtoNode’s Web Configurator ............................................................................. 25
5.2.1 Changing Device COM Settings ............................................................................................. 25
5.2.2 Auto-Discovery with the Web-Configurator ............................................................................. 26
5.2.3 Selecting Profiles for Devices Connected to ProtoNode – Must Use Web Configurator to
Configure ENVI’s................................................................................................................................ 27
5.3
BACnet/IP and Modbus TCP/IP: Setting IP Address for Field Network ....................................... 29
6
BACnet MS/TP and BACnet/IP: Setting Node_Offset to Assign Specific Device Instances ..... 31
7
How to Start the Installation Over: Clearing Profiles ..................................................................... 32
8
LonWorks (FPC-N35): Commissioning ProtoNode on a lonworks Network ............................... 33
8.1
Commissioning ProtoNode FPC-N35 on a LonWorks Network ................................................... 33
8.1.1 Instructions to Download XIF File from ProtoNode FPC-N35 Using Browser ........................ 33
9
CAS BACnet Explorer for Validating ProtoNode in the Field ........................................................ 35
9.1
Downloading the CAS Explorer and Requesting an Activation Key ............................................. 35
9.2
CAS BACnet Setup....................................................................................................................... 36
9.2.1 CAS BACnet MS/TP Setup ..................................................................................................... 36
9.2.2 CAS BACnet BACnet/IP Setup ............................................................................................... 36
Appendix A. Troubleshooting .................................................................................................................. 37
Appendix A.1. Viewing Diagnostic information ........................................................................................ 37
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Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix A.2. Check Wiring and Settings............................................................................................... 38
Appendix A.3. Take Diagnostic Capture With the FieldServer Utilities ................................................... 38
Appendix A.4. BACnet: Setting Network_Number for more than one ProtoNode on Subnet ................. 41
Appendix A.5. LED Diagnostics for Modbus RTU Communications Between ProtoNode and Devices 42
Appendix B. Vendor Information - Harsco Industrial Patterson-Kelley .............................................. 43
Appendix B.1. ENVI Modbus RTU Mappings to BACnet MS/TP, BACnet/IP, Metasys N2 and LonWorks
................................................................................................................................................................. 43
Appendix B.2. Love Modbus RTU Mappings to BACnet MS/TP, BACnet/IP, Metasys N2 and LonWorks
................................................................................................................................................................. 46
Appendix B.3. Nuro Modbus RTU Mappings to BACnet MS/TP, BACnet/IP, Metasys N2 and LonWorks
................................................................................................................................................................. 48
Appendix C. “A” Bank DIP Switch Settings ........................................................................................... 50
Appendix C.1. “A” Bank DIP Switch Settings .......................................................................................... 50
Appendix D. Reference ............................................................................................................................. 53
Appendix D.1. Specifications ................................................................................................................... 53
Appendix D.1.1. Compliance with UL Regulations ........................................................................... 53
Appendix E. Limited 2 Year Warranty ..................................................................................................... 54
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Harsco Patterson Kelley’s ProtoNode Startup Guide
LIST OF FIGURES
Figure 1: Method of configuration for the devices ......................................................................................... 9
Figure 2: Modbus Registers .......................................................................................................................... 9
Figure 3: ProtoCessor Part Numbers .......................................................................................................... 10
Figure 4: Modbus RTU COM Settings ........................................................................................................ 11
Figure 5: S Bank DIP Switches ................................................................................................................... 12
Figure 6: MAC Address DIP Switches ........................................................................................................ 14
Figure 7: Baud Rate DIP Switches ............................................................................................................. 16
Figure 8: Baud Rate .................................................................................................................................... 16
Figure 9: ProtoNode FPC-N34 (upper) and ProtoNode FPC-N35 (lower) ................................................. 17
Figure 10: Wiring diagram for Modbus RTU RS-485 connections to the ProtoNode’s RS-485 port .......... 18
Figure 11: Modbus RS-485 Biasing set to ON position FPC-N34 (left) and FPC-N35 (right) .................... 19
Figure 12: Modbus RS-485 End-Of-Line Termination on the FPC-N34 (left) and FPC-N35 (right) ........... 20
Figure 13: Connection from ProtoNode to RS-485 Field Protocol .............................................................. 21
Figure 14: RS-485 EOL Switch ................................................................................................................... 21
Figure 15: LonWorks Terminal .................................................................................................................... 21
Figure 16: Required current draw for the ProtoNode .................................................................................. 22
Figure 17: Power Connections .................................................................................................................... 22
Figure 18: S3 DIP Switch setting for Auto Discovering Devices ................................................................. 23
Figure 19: Web Configurator Showing no Active Profiles ........................................................................... 25
Figure 20: Discovering devices ................................................................................................................... 26
Figure 21: Web Configurator Showing Available Profiles for Selection ...................................................... 27
Figure 22: Web Configurator Showing Node-ID ......................................................................................... 28
Figure 23: Web Configurator Showing an Active Profile Addition............................................................... 28
Figure 24: Web Configurator screen with Active Profiles ........................................................................... 29
Figure 25: Changing IP Address via FST Web GUI ................................................................................... 30
Figure 26: Web Configurator screen ........................................................................................................... 31
Figure 27: Web Configurator screen ........................................................................................................... 32
Figure 28: LonWorks Service Pin Location ................................................................................................. 33
Figure 29: Sample of Fserver.XIF File ........................................................................................................ 34
Figure 30: Downloading the CAS Explorer ................................................................................................. 35
Figure 31: Requesting CAS Activation Key ................................................................................................ 35
Figure 32: Error messages screen .............................................................................................................. 37
Figure 33: Ethernet Port Location ............................................................................................................... 38
Figure 34: Web Configurator showing setting the network number for BACnet ......................................... 41
Figure 35: Diagnostic LEDs ........................................................................................................................ 42
Figure 36: Specifications ............................................................................................................................. 53
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Harsco Patterson Kelley’s ProtoNode Startup Guide
1
INTRODUCTION
1.1
ProtoNode Gateway
ProtoNode is an external, high performance Building Automation multi-protocol gateway that is
preconfigured to automatically communicate between any of Harsco Industrial Patterson-Kellley’s
products (hereafter called “device”) to various building automation protocols. These protocols include
1
2
3
BACnet® MS/TP, BACnet/IP, Metasys® N2 by JCI, Modbus TCP/IP, and LonWorks® .
It is not necessary to download any configuration files to support the required applications.
ProtoNode is pre-loaded with tested Profiles/Configurations for the supported devices.
The
We use 2 methods to dynamically configure the ProtoNode to support the devices with the selected
protocol.
1
2
4

Auto-Discovery: Supported RS-485 devices can be automatically detected and identified for
addition to the ProtoNode’s configuration. (Section 1.2)

Web Configurator: For RS-485 devices that are not supported by Auto-Discovery, use a
browser to connect to the ProtoNode’s Web Configurator utility. Select the device(s) from a dropdown list of known profiles and assign a Modbus Node-ID. Then the ProtoNode automatically
builds the configuration to support the device(s) with the desired protocol.
BACnet is a registered trademark of ASHRAE
Metasys is a registered trademark of Johnson Controls Inc.
LonWorks is a registered trademark of Echelon Corporation
Page 8 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
Methods of Configuration – Harsco Industrial Patterson-Kelley’s Devices
1.2
The ProtoNode offers two methods of configuration:

Auto-Discovery for RS-485 devices listed below in Figure 1.

Web Configurator for RS-485 devices that cannot be identified by Auto-Discovery.
Devices
Type of Communication
Type of Configuration
ENVI
RS-485
Web Configurator
Love
RS-485
Auto-Discover
Nuro
RS-485
Auto-Discover
Figure 1: Method of configuration for the devices
1.3
Harsco Industrial Patterson-Kelley’s Devices and Point Count Available

The total number of devices attached to ProtoNode FPC-N34 cannot exceed 1500 Modbus
registers for BACnet MS/TP, BACnet/IP, Modbus TCP/IP or Metasys N2.

The total number of devices attached to ProtoNode FPC-N35 cannot exceed 1000 Modbus
registers for LonWorks.
Devices
Point Count
ENVI
53
LOVE
40
NURO
31
Figure 2: Modbus Registers
Page 9 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
2
BACNET/LONWORKS SETUP FOR PROTOCESSOR PROTONODE FPCN34/FPC-N35
2.1
Record Identification Data
Each ProtoNode has a unique part number located on the underside of the unit. This number
should be recorded, as it may be required for technical support. The numbers are as follows:
Model
Part Number
ProtoNode FPC-N34
FPC-N34-0710
ProtoNode FPC-N35
FPC-N35-103-401-0771
Figure 3: ProtoCessor Part Numbers

FPC-N34 units have the following 3 ports: RS-485 + Ethernet + RS-485

FPC-N35 units have the following 3 ports: LonWorks + Ethernet + RS-485
Page 10 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
2.2
Configuring Device Communications
2.2.1 Set Modbus COM setting on all of the devices connected to the ProtoNode

All of the devices connected to ProtoNode MUST have the same Baud Rate, Data Bits, Stop
Bits, and Parity settings.

Figure 4 specifies the device serial port settings required to communicate with the ProtoNode.

Set the Modbus COM settings on the devices now. When mixing devices, the selected baud
rates are required to match the slowest device (ENVI=9600). When there are no ENVI units
present, the baud rate could be set faster (LOVE end NURO support 19200 and 38400).

o
The ProtoNode’s default settings are 9600 / None / 8 /1
o
Ability to change the ProtoNode’s Device COM settings are offered later in Section
5.2.1
The Selected device COM settings need to be documented.
Serial Port Setting
ENVI
LOVE
NURO
Protocol
Modbus RTU
Modbus RTU
Modbus RTU
Baud Rate
9600
9600, 19.2k, 38.4k
9600, 19.2k, 38.4k
Parity
None
None
None
Data Bits
8
8
8
Stop Bits
1
1
1
Figure 4: Modbus RTU COM Settings
2.2.2 Set Modbus RTU Node-ID for each of the devices attached to the ProtoNode


Set Modbus Node-ID for each of the devices attached to ProtoNode. The Modbus Node-ID’s
need to be uniquely assigned between 1 and 255.
o
The Modbus Node-ID that is assigned for each device needs to be documented.
o
The Modbus Node-ID’s assigned are used for designating the Device Instance for
BACnet/IP and BACnet MS/TP (Section 2.4.2)
The Metasys N2 and Modbus TCP/IP Node-ID will be set to same value as the Node-ID of the
Modbus RTU device.
Page 11 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
2.3
Selecting the Desired Field Protocol and Enabling Auto -Discovery
2.3.1 Selecting Desired Field Protocol


ProtoNode FPC-N34 units use the “S” bank of DIP switches (S0 – S2) to select the Field
Protocol.
o
See the table in Figure 4 for the switch settings to select BACnet MS/TP, BACnet/IP,
Modbus TCP/IP, or Metasys N2.
o
The OFF position is when the DIP switches are set closest to the outside of the box.
ProtoNode FPC-N35 units do not use the “S” bank DIP switches (S0 – S2) to select a Field
Protocol.
o
On ProtoNode FPC-N35 units, these switches are disabled; the Field Protocol is always
LonWorks.
S0 S1 S2 S3
S0 – S3 DIP
Switches
S Bank DIP Switch Location
ProtoNode FPC-N34
Profile
BACnet/IP
BACnet MS/TP
Metasys N2
Modbus TCP/IP
S Bank DIP Switches
S0
S1
S2
Off
Off
Off
On
Off
Off
Off
On
Off
On
On
Off
BACnet MS/TP, BACnet/IP, Modbus TCP/IP, and Metasys N2 Settings
for ProtoNode FPC-N34 (BACnet)
ProtoNode FPC-N34 and FPC-N35
S3 DIP Switch Auto-Discovery Mode
Auto-Discovery ON – Build New Configuration
Auto-Discover OFF – Save Current Configuration
Figure 5: S Bank DIP Switches
Page 12 of 54
S3
On
Off
Harsco Patterson Kelley’s ProtoNode Startup Guide
2.3.2 Enabling Auto-Discovery
There are two methods to activate Auto-Discovery: The first is by using the DIP switches (as described
below) and the second method is by using the Web-Configurator (see Section 5.2.2)
If using the Web-Configurator method, leave the S3 DIP switch in the OFF position.

The S3 DIP switch is used to both enable Auto-Discovery of known devices attached to the
ProtoNode, and to save the recently discovered configuration.
o
See the table in Figure 1 for RS-485 devices that are supported by Auto-Discovery.
o
See the table in Figure 5 for the DIP switch setting to enable Auto-Discovery.
o
If the ProtoNode is being installed for the first time, set S3 to the ON position to enable
Auto-Discovery.
o
The ON position is when the DIP switches are set closest to the inside of the box for the
DIP switch setting to enable Auto Discovery.
Page 13 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
2.4
Setting the MAC Address, Device Instance and Baud Rate
2.4.1 BACnet MS/TP (FPC-N34): Setting the MAC Address BACnet Network

Only 1 MAC address is set for ProtoNode regardless of how many devices are connected to
ProtoNode.

Set the BACnet MS/TP MAC addresses of the ProtoNode to a value between 1 to 127 (MAC
Master Addresses); this is so that the BMS Front End can find the ProtoNode via BACnet
auto discovery.

Note: Never set a BACnet MS/TP MAC Address from 128 to 255. Addresses from 128 to
255 are Slave Addresses and can not be discovered by BMS Front Ends that support auto
discovery of BACnet MS/TP devices.

Set “A” bank DIP switches A0 – A7 to assign a MAC Address to the ProtoNode for BACnet
MS/TP.

Please refer to Appendix C.1 for the complete range of MAC Addresses and DIP switch
settings.
Figure 6: MAC Address DIP Switches
NOTE: When setting DIP Switches, please ensure that power to the board is OFF.
Page 14 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
2.4.2 BACnet MS/TP and BACnet/IP (FPC-N34): Setting the Device Instance

The BACnet Device Instances will be calculated by adding the Node_Offset (default value is
50,000) to the device’s Modbus Node ID (that was assigned in Section 2.2).

The BACnet Device Instance can range from 1 to 4,194,303.

To assign specific Device Instance values, change the Node_Offset value.
2.4.2.1)
(Section
For example:
o
o
Node_Offset value (default) = 50,000
Device 1 has a Modbus Node-ID of 1
o
Device 2 has a Modbus Node-ID of 22
o
Device 3 has a Modbus Node-ID of 33
o
Given that: Device Instance = Node_Offset + Modbus Node_ID
o
Device Instance, Device 1 = 50,000 + 1 = 50,001
o
Device Instance, Device 2 = 50,000 + 22 = 50,022
o
Device Instance, Device 3 = 50,000 + 33 = 50,033
2.4.2.1
BACnet MS/TP or BACnet/IP: Assigning Specific Device Instances

With the default Node_Offset value of 50,000 the Device Instances values generated will be
within the range of 50,001 to 50,127.

The values allowed for a BACnet Device Instance can range from 1 to 4,194,303.

To assign a specific Device Instance (or range), change the Node_Offset value.

Methods for changing the Node_Offset value are provided in Section 6
o
This step cannot be performed until after the unit is connected and powered.
2.4.3 Metasys N2 or Modbus TCP/IP (FPC-N34): Setting the Node-ID

The Modbus RTU Node-ID’s assigned to the devices attached to the ProtoNode in Section
2.2 will be the Metasy N2 and Modbus TCP/IP Node_ID’s for the field protocols.

Metasys N2 and Modbus TCP/IP Node-ID Addressing: Metasys N2 and Modbus TCP/IP
Node-ID’s range from 1-255.
Page 15 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
2.4.4 BACnet MS/TP (FPC-N34): Setting the Baud Rate

“B” bank DIP switches B0 – B3 can be used to set the Field baud rate of the ProtoNode to
match the baud rate required by the Building Management System for BACnet MS/TP.

The baud rate on ProtoNode for Metasys N2 is set for 9600. “B” bank DIP switches B0 – B3
are disabled for Metasys N2 on ProtoNode FPC-N34.

“B” bank DIP switches B0 – B3 are disabled on ProtoNode FPC-N35 (FPC-N35 LonWorks).
B0 B1 B2 B3
Figure 7: Baud Rate DIP Switches
2.4.4.1
Baud Rate DIP Switch Selection
Baud
9600
19200
38400
57600
76800
B0
On
Off
On
Off
On
B1
On
Off
On
Off
Off
B2
On
Off
Off
On
On
Figure 8: Baud Rate
Page 16 of 54
B3
Off
On
On
On
On
Harsco Patterson Kelley’s ProtoNode Startup Guide
3
INTERFACING PROTONODE TO DEVICES
3.1
ProtoNode FPC-N34 and FPC-N35 Showing Connection Ports
Figure 9: ProtoNode FPC-N34 (upper) and ProtoNode FPC-N35 (lower)
Page 17 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
3.2
Device Connections to ProtoNode
ProtoNode 6 Pin Phoenix connector for RS-485 Devices

The 6 pin Phoenix connector is the same for ProtoNode FPC-N34 (BACnet) and FPC-N35
(LonWorks).

Pins 1 through 3 are for Modbus RS-485 devices.
o

The RS-485 GND (Pin 3) is not typically connected.
Pins 4 through 6 are for power. Do not connect power (wait until Section 3.5).
3.2.1 Connecting NURO Modbus RTU Boilers to the ProtoNode’s RS -485



Connect NURO’s Modbus COM A to ProtoNode’s pin 1 labeled Tx/+ on the Phoenix 6 pin
connector.
Connect NURO’s Modbus COM B to ProtoNode’s pin 2 labeled Rx/- on the Phoenix 6 pin
connector.
Do not connect Ground between NURO and the ProtoNode’s RS-485 Ground.
3.2.2 Connecting LOVE Modbus RTU Boilers to the ProtoNode’s RS -485



Connect LOVE’s Modbus DATA+ to ProtoNode’s pin 1 labeled Tx/+ on the Phoenix 6 pin
connector.
Connect LOVE’s Modbus DATA- to ProtoNode’s pin 2 labeled Rx/- on the Phoenix 6 pin
connector.
Do not connect Ground between LOVE and the ProtoNode’s RS-485 Ground.
3.2.3 Connecting ENVI Modbus RTU Boilers to the ProtoNode’s RS -485



Connect ENVI’s Modbus COM 1A (RS-485+) to ProtoNode’s pin 1 labeled B+ (RS-485+) on the
Phoenix 6 pin connector.
Connect ENVI’s Modbus COM 1B (RS-485-) to ProtoNode’s pin 2 labeled A- (RS-485-) on the
Phoenix 6 pin connector.
Do not connect Ground between ENVI and the ProtoNode’s RS-485 Ground.
Figure 10: Wiring diagram for Modbus RTU RS-485 connections to the ProtoNode’s RS-485 port
Page 18 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
3.2.4 Biasing the Modbus RS-485 Network

An RS-485 network with more than one device needs to have biasing to ensure proper
communication. The biasing only needs to be done on one device.

None of the ENVI’s support biasing. The ProtoNode is required to bias the RS-485 network.

The ProtoNode has 510 Ohm resistors that can be used to set the biasing. The ProtoNode’s
default positions from the factory for the Biasing jumpers are ON.

The biasing MUST always be left set to the ON position.

The ON position is when the 2 RED biasing jumpers straddle the 4 pins closest to the inside of
the board of the ProtoNode. See Figure 11.
RS-485 Bias Switch
Figure 11: Modbus RS-485 Biasing set to ON position FPC-N34 (left) and FPC-N35 (right)
Page 19 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
3.2.5 End of Line Termination Switch for the Modbus RS-485 port on the
ProtoNode

On long RS-485 cabling runs, the RS-485 trunk must be properly terminated at each end.

The ProtoNode has an End Of Line (EOL) blue jumper. The default setting for this Blue EOL
switch is OFF with the jumper straddling the pins closest to the inside of the board of the
ProtoNode.
o
On short cabling runs the EOL switch does not to need to be turned ON.

If the ProtoNode is placed at one of the ends of the trunk, set the blue EOL jumper to the
ON position straddling the pins closest to the outside of the board of the ProtoNode.

Always leave the single Red Jumper in the A position (default factory setting).
Modbus RS-485
EOL Switch
Leave in A Position
Figure 12: Modbus RS-485 End-Of-Line Termination on the FPC-N34 (left) and FPC-N35 (right)
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Harsco Patterson Kelley’s ProtoNode Startup Guide
3.3
BACnet MS/TP or Metasys N2 (FPC-N34): W iring Field Port to RS-485
Network
Note: See Section 5.3 for information on connecting to a BACnet/IP or Modbus TCP/IP network.

Connect the RS-485 network wires for BACnet MS/TP or Metasys N2 to the 3-pin RS-485
connector on ProtoNode FPC-N34 as shown below in Figure 13.
o

The RS-485 GND (Pin 3) is not typically connected.
If the ProtoNode is the last device on the BACnet MS/TP or Metasys N2 trunk, then the
End-Of-Line Termination Switch needs to be enabled (Figure 14).
The default setting from the factory is OFF (switch position = right side).
o
To enable the EOL Termination, turn the EOL switch ON (switch position = left
side).
Pin
Assignment
RS-485 +
RS-485 RS-485 GND
-
ProtoNode
Pin #
Pin 1
Pin 2
Pin 3
G
BMS RS-485
Wiring
RS-485 +
RS-485 -
+
o
Figure 13: Connection from ProtoNode to RS-485 Field Protocol
End-of-Line Switch
Figure 14: RS-485 EOL Switch
3.4
LonW orks (FPC-N35): Wiring Field Port to LonW orks Network

Connect ProtoNode to the field network with the LonWorks terminal using a twisted pair nonshielded cable. LonWorks has no polarity.
Figure 15: LonWorks Terminal
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Harsco Patterson Kelley’s ProtoNode Startup Guide
3.5
Power-Up ProtoNode
Apply power to ProtoNode as show below in Figure 17.
complies with the specifications provided in Appendix D.1.
Ensure that the power supply used

ProtoNode accepts either 9-30VDC or 12-24 VAC on pins 4 and 5.

Frame GND on pin 6 should be connected.
Power Requirement for ProtoNode External Gateway
Current Draw Type
ProtoNode Family
12VDC/VAC
24VDC/VAC
30VDC
FPC – N34, N36, N38 (Typical)
170mA
100mA
80mA
FPC – N34, N36, N38 (Maximum)
240mA
140mA
100mA
FPC – N35, N37, N39 (Typical)
210mA
130mA
90mA
FPC – N35, N37, N39 (Maximum)
250mA
170mA
110mA
Note: These values are ‘nominal’ and a safety margin should be added to the power supply of the host
system. A safety margin of 25% is recommended.
Figure 16: Required current draw for the ProtoNode
Power to
ProtoNode
ProtoNode
Pin
Pin #
Assignment
Power In (+)
Power In (-)
Frame Ground
Pin 4
Pin 5
Pin 6
V+
VFRAME GND
Figure 17: Power Connections
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Harsco Patterson Kelley’s ProtoNode Startup Guide
4
AUTO-DISCOVERY: SAVING RS-485 DEVICE CONFIGURATIONS
There are some RS-485 devices that cannot be recognized by Auto-Discovery; see Section 1.2 for a list
of devices. Devices that cannot be configured by Auto-Discovery are setup by using the Web
Configurator (Section 5).
There are two ways to run Auto-Discovery:

Use the S3 DIP switch to enable Auto-Discovery and save the configuration (Section 2.3.2 + 4.1)

Use the Web-Configurator’s interface to run Auto-Discovery (Section 5.1 + 5.2).
If using the Web-Configurator’s interface, skip Section 4.1 below and go to Section 5.1.
Auto-Discovery with DIP Switch Method: After Completion – Turn Off to Save
Configuration
4.1
The S3 DIP Switch for Enabling Auto-Discovery should have been set in section 2.3.2 before applying
power to the ProtoNode. Do not Enable Auto-Discovery via S3 DIP switch when the unit is powered.

When power is applied to a ProtoNode that is set to Enable Auto-Discovery, it will take about
10 minutes to complete the discovery of all of the RS-485 devices attached to the ProtoNode.

The “TX” LED will flash during Auto-Discovery. The “TX LED will stop flashing when completed.

Once the ProtoNode has discovered all of the RS-485 devices, turn OFF the power supplied to
the ProtoNode and set the S3 DIP switch to the OFF position to save the current configuration.

Then turn the power to the ProtoNode back ON. The stored configuration will be loaded.
ProtoNode FPC-N34 and FPC-N35
S3 DIP Switch Auto-Discovery Mode
Auto-Discovery ON – Build New Configuration
Auto-Discover OFF – Save Current Configuration
S3
On
Off
Figure 18: S3 DIP Switch setting for Auto Discovering Devices
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Harsco Patterson Kelley’s ProtoNode Startup Guide
5
USE PROTONODE’S WEB CONFIGURATOR TO SELECT DEVICE PROFILES
5.1
Connect the PC to ProtoNode via the Ethernet Port

Connect a Cat 5 Ethernet cable (Straight through or Cross-Over) between the PC and
ProtoNode.

The Default IP Address of ProtoNode is 192.168.1.24, Subnet Mask is 255.255.255.0. If the PC
and ProtoNode are on different IP Networks, assign a static IP Address to the PC on the
192.168.1.xxx network.

Go to

Right-click on Local Area Connection > Properties

Highlight

Select: Use the following IP address

>
Click
>
>
twice
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Harsco Patterson Kelley’s ProtoNode Startup Guide
Connecting to ProtoNode’s Web Configurator
5.2

After setting your PC to be on the same subnet as the ProtoNode (Section 5.1), open a web
browser on your PC and enter the IP address of the ProtoNode; the default address is
192.168.1.24.

If the IP address of the ProtoNode has been changed by previous configuration, you will need
to get the assigned IP address from the network administrator.
5.2.1 Changing Device COM Settings

When you open the Web Configurator, you will see the Device COM settings section as the first 4
fields of the screen. See Figure 20.
o
mod_baud_rate
o
mod_parity
o
mod_data_bits
o
mod_stop_bits

Each field specifies the accepted range of values.

After entering a new Device COM setting value, click the “Submit” button to save the change.

After completing all Device COM setting changes, click “System Restart” to apply the saved
changes.
Figure 19: Web Configurator Showing no Active Profiles
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Harsco Patterson Kelley’s ProtoNode Startup Guide
5.2.2 Auto-Discovery with the Web-Configurator
Note: To run Auto-Discovery with the Web-Configurator, the S3 DIP switch must be in the OFF
position when power is provided to the ProtoNode.

When you open the Web Configurator, you will see the “Discovery Mode” button at the bottom of
the screen. The dark green color of the indicator in the Discovery Mode button indicates it is not
active.

Click on the “Discovery Mode” button. A dialog box will be presented to confirm restart.

When the ProtoNode restarts it will begin Auto-Discovery. The bright green color of the indicator
in the Discovery Mode button indicates it is active (searching). It will take about 10 minutes to
complete the discovery of all to the RS-485 devices attached to the ProtoNode. See Figure 20.

The “TX” LED will flash during Auto-Discovery. The “TX” LED will stop flashing when completed.

After the discovery completes, click on the “Discovery Mode” button to save the configuration and
restart. A dialog box will be presented to “disable discovery and restart the device”.
Figure 20: Discovering devices
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Harsco Patterson Kelley’s ProtoNode Startup Guide
5.2.3 Selecting Profiles for Devices Connected to ProtoNode – Must Use Web
Configurator to Configure ENVI’s

When you open the Web Configurator, you will see the Active Profiles section on the lower left
side of the screen.

The Active Profiles section lists the currently active device profiles, including previous Web
Configurator additions and any devices identified by Auto-Discovery configuration methods. This
list will be empty for new installations, or after clearing all configurations. ( Figure 19)

To add an active profile to support a device, click the ADD button under Active Profiles. His will
present a drop-down box underneath the Current Profile column that lists all the available profiles.
(Figure 21)

For every device that is added, you need to specify the Modbus Node-ID assigned to the
particular device. This specification must match the device’s network settings.
Figure 21: Web Configurator Showing Available Profiles for Selection
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Harsco Patterson Kelley’s ProtoNode Startup Guide
Figure 22: Web Configurator Showing Node-ID

Once the Profile for the device has been selected from the drop-down list, enter the value of
the device’s Modbus Node-ID which was assigned in Section 2.2.2. See Figure 22.

Then press the SUBMIT button to add the Profile to the list of devices to be configured.

Repeat this process until all the devices have been added.

Completed additions will be listed under Active Profiles as show in Figure 23.
Figure 23: Web Configurator Showing an Active Profile Addition
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Harsco Patterson Kelley’s ProtoNode Startup Guide
5.3
BACnet/IP and Modbus TCP/IP: Setting IP Address for Field Network

After setting your PC to be on the same subnet as the ProtoNode (Section 5.1), open a web
browser on your PC and enter the IP address of the ProtoNode; the default address is
192.168.1.24.

The Web Configurator will be displayed as your landing page. (Figure 24)

To access the FST Web GUI, click on the “Diagnostics & Debugging” button in the bottom
right side of the page.
Figure 24: Web Configurator screen with Active Profiles
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Harsco Patterson Kelley’s ProtoNode Startup Guide
Figure 25: Changing IP Address via FST Web GUI

From the FST Web GUI’s landing page, click on “Setup” to expand the navigation tree and then
select “Network Settings” to access the IP Settings menu. (Figure 25).

Modify the IP address (N1 IP address field) of the ProtoNode Ethernet port.

If necessary, change the Netmask (N1 Netmask field).

Type in a new Subnet Mask

If necessary, change the IP Gateway (Default Gateway field)

Type in a new IP Gateway

Note: If the ProtoNode is connected to a router, the IP Gateway of the ProtoNode should be
set to the IP address of the router that it is connected to.

Reset ProtoNode

Unplug Ethernet cable from PC and connect it to the network hub or router

Record the IP address assigned to the ProtoNode for future reference.
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Harsco Patterson Kelley’s ProtoNode Startup Guide
6
BACNET MS/TP AND BACNET/IP: SETTING NODE_OFFSET TO ASSIGN
SPECIFIC DEVICE INSTANCES

After setting your PC to be on the same subnet as the ProtoNode (Section 5.1), open a web
browser on your PC and enter the IP address of the ProtoNode; the default address is
192.168.1.24.

If the IP address of the ProtoNode has been changed by previous configuration, you will need
to get the assigned IP address from the network administrator.

The Web Configurator will be displayed as your landing page. (Figure 26)

Node_Offset field will be presented displaying the current value (default = 50,000).

Change the value of Node_Offset to establish the desired Device Instance values, and click
SUBMIT.
o
Given that: Node_Offset + Modbus Node_ID = Device Instance
o
Then:
Node_Offset (required) = Device Instance (desired) – Modbus Node_ID
For example:
o
Device 1 has a Modbus Node-ID of 1
o
Device 2 has a Modbus Node-ID of 22
o
Device 3 has a Modbus Node-ID of 33
o
Desired Device Instance for 1 device = 1,001
o
Node_Offset (required) = 1,001 – (Modbus Node_ID) = 1,001 – 1 = 1,000
o
The Node_Offset value will be applied to all devices.
o
Device 1 Instance will then be = 1,000 + Modbus Node_ID = 1,000 + 1 = 1,001
o
Device 2 Instance will then be = 1,000 + Modbus Node_ID = 1,000 + 22 = 1,022
o
Device 3 Instance will then be = 1,000 + Modbus Node_ID = 1,000 + 33 = 1,033
st
Figure 26: Web Configurator screen
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Harsco Patterson Kelley’s ProtoNode Startup Guide
7
HOW TO START THE INSTALLATION OVER: CLEARING PROFILES

After setting your PC to be on the same subnet as the ProtoNode (section 5.1), open a web
browser on your PC and enter the IP address of the ProtoNode; the default address is
192.168.1.24.

If the IP address of the ProtoNode has been changed by previous configuration, you will need
to get the assigned IP address from the network administrator.

The Web Configurator will be displayed as your landing page.

At the bottom-left of the page, click the “Clear Profiles and Restart” button.

Once restart is complete, all the past profiles that were discovered and or added via the Web
configurator will be delete. The unit is now ready to be reinstalled.
Figure 27: Web Configurator screen
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Harsco Patterson Kelley’s ProtoNode Startup Guide
8
LONWORKS (FPC-N35): COMMISSIONING PROTONODE ON A LONWORKS
NETWORK
Commissioning may only be performed by the LonWorks administrator.
8.1
Commissioning ProtoNode FPC-N35 on a LonW orks Network
The User will be prompted by the LonWorks Administrator to hit the Service Pin on the ProtoNode
FPC-N35 at the correct step of the Commissioning process which is different for each LonWorks
Network Management Tool.

If an XIF file is required, see steps in Section 8.1.1 to generate XIF
Figure 28: LonWorks Service Pin Location
8.1.1 Instructions to Download XIF File from ProtoNode FPC-N35 Using Browser

Connect a cat5 Ethernet cable (Straight through or Cross-Over)between the PC and
ProtoNode

The Default IP Address of ProtoNode is 192.168.1.24, Subnet Mask is 255.255.255.0. If the
PC and ProtoNode are on different IP Networks, assign a static IP Address to the PC on the
192.168.1.xxx network

For Windows XP:
Go to
>
>
Right-click on Local Area Connection > Properties
Highlight

>
For Windows 7:
Go to
>
>
>
>
Right-click on Local Area Connection > Properties
Highlight
>
Page 33 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide

For Windows XP and Windows 7, select: Use the following IP address

Click



Open a web browser and go to the following address: IP address of ProtoCessor/fserver.xif
Example: 192.168.1.24/fserver.xif
If the web browser prompts you to save file, save the file onto the PC. If the web browser
displays the xif file as a web page, save the file on your PC as fserver.xif
twice
Figure 29: Sample of Fserver.XIF File
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Harsco Patterson Kelley’s ProtoNode Startup Guide
9
CAS BACNET EXPLORER FOR VALIDATING PROTONODE IN THE FIELD
ProtoCessor has arranged a complementary 2 week fully functional copy of CAS BACnet Explorer
(through Chipkin Automation) that can be used to validate BACnet MS/TP and/or BACnet/IP
communications of ProtoNode in the field without having to have the BMS Integrator on site. A
Serial or USB to RS-485 converter is needed to test BACnet MS/TP.
9.1
Downloading the CAS Explorer and Requesting an Activation Key

To
request
the
complementary
BACnet
CAS
key,
go
to
http://app.chipkin.com/activation/twoweek/ and fill in all the information. Enter Vendor Code
“Harsco12”. Once completed, the email address that was submitted will be registered.
Figure 30: Downloading the CAS Explorer

Go to the following web site, download and install the CAS BACnet Explorer to your PC:
http://www.chipkin.com/technical-resources/cas-bacnet-explorer/

Open CAS BACnet Explorer; in the CAS Activation form, enter the email address that was
registered and click on “Request a key”. The CAS key will then be emailed to the registered
address. Cut/paste key from email into the Product key field and click “Activate”.
Figure 31: Requesting CAS Activation Key
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Harsco Patterson Kelley’s ProtoNode Startup Guide
9.2
CAS BACnet Setup
These are the instructions to set CAS Explorer up for the first time on BACnet MS/ST and
BACnet/IP.
9.2.1
9.2.2
CAS BACnet MS/TP Setup

Using the Serial or USB to RS-485 converter, connect it to your PC and the 3 Pin BACnet
MS/TP connector on ProtoNode FPC-N34.

In CAS Explorer, do the following:
o
Click on settings
o
Check the BACnet MS/TP box and uncheck the BACnet/IP and BACnet Ethernet
boxes
o
Set the BACnet MS/TP MAC address to 0
o
Set the BACnet MS/TP Baud Rate to 38400
o
Click Ok
o
On the bottom right-hand corner, make sure that the BACnet MS/TP box is green
o
Click on discover
o
Check all 4 boxes
o
Click Send
CAS BACnet BACnet/IP Setup

See Section 5.3 to set the IP address and subnet of the PC that will be running the CAS
Explorer.

Connect a straight through or cross Ethernet cable from the PC to ProtoNode.

In CAS Explorer, do the following:
o
Click on settings
o
Check the BACnet/IP box and uncheck the BACnet MS/TP and BACnet Ethernet
boxes
o
In the “Select a Network Device” box, select the network card of the PC by clicking on
it
o
Click Ok
o
On the bottom right-hand corner, make sure that the BACnet/IP box is green
o
Click on discover
o
Check all 4 boxes
o
Click Send
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Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix A. Troubleshooting
Appendix A.1. Viewing Diagnostic information

Type the IP address of the ProtoNode into your web browser or use the FieldServer Toolbox to
connect to the ProtoNode.

Click on Diagnostics and Debugging Button, then click on view, and then on connections.

If there are any errors showing on the Connection page, please refer to Appendix A.2 for the
relevant wiring and settings.
Figure 32: Error messages screen
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Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix A.2. Check Wiring and Settings


No COMS on Modbus RTU side. If Tx/Rx are not flashing rapidly then there is a COM issue on
the Modbus side and you need to check the following things:
o
Visual observations of LEDs on ProtoNode. (Appendix A.5)
o
Check baud rate, parity, data bits, stop bits
o
Check Modbus device address
o
Verify wiring
o
Verify all the Modbus RTU devices that were discovered in FST Web Configurator.
(Section 5.2)
Field COM problems:
o
Visual observations of LEDs on ProtoNode. (Appendix A.5)
o
Visual dipswitch settings (using correct baud rate and device instance)
o
Verify IP address setting
o
Verify wiring
If the problem still exists, a Diagnostic Capture needs to be taken and sent to Sierra Monitor
Corporation. (Appendix A.3)
Appendix A.3. Take Diagnostic Capture With the FieldServer Utilities

Once the Diagnostic Capture is complete, email it to [email protected]. The
Diagnostic Capture will allow us to rapidly diagnose the problem.

Ensure that FieldServer Toolbox is Loaded on the PC that is currently being used, or download
FieldServer-Toolbox.zip on the Sierra Monitor webpage, under Customer Care: Resource Center,
Software Downloads:
http://www.sierramonitor.com/customer-care/resource-center?filters=software-downloads

Extract the executable file and complete the installation.
Ethernet Port
Figure 33: Ethernet Port Location

Disable any wireless Ethernet adapters on the PC/Laptop.

Disable firewall and virus protection software if possible.

Connect a standard Cat 5 Ethernet cable between the PC and ProtoNode.

Double click on the FS Toolbox Utility.
Page 38 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide

Step 1: Take a Log
o
Click on the diagnose icon
o
Select full Diagnostic
o
If desired, the default capture period can be changed.
o
Click on Start Diagnostic
of the desired device.
Page 39 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
o

Wait for Capture period to finish. Diagnostic Test Complete window will appear.
Step 2: Send Log
o
Once the Diagnostic test is complete, a .zip file will be saved on the PC.
o
Choose open to launch explorer and have it point directly at the correct folder. Send the
Diagnostic zip file to [email protected]
Page 40 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix A.4. BACnet: Setting Network_Number for more than one ProtoNode on Subnet
For both BACnet MS/TP and BACnet/IP, if more than one ProtoNode is connected to the same subnet,
they must be assigned unique Network_Number values.
On the main Web Configuration screen, update the Network Number with the “network_nr” field and click
submit. The default value is 50.
.
Figure 34: Web Configurator showing setting the network number for BACnet
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Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix A.5. LED Diagnostics for Modbus RTU Communications Between ProtoNode and
Devices
Please see the diagram below for ProtoNode FPC-N34 and FPC-N35 LED Locations.
Diagnostic LEDs
Tag
SPL
RUN
ERR
RX
TX
PWR
Description
Used to monitor Node offline
The RUN LED will start flashing 20 seconds after power indicating normal operation.
The SYS ERR LED will go on solid 15 seconds after power up. It will turn off after 5 seconds. A
steady red light will indicate there is a system error on ProtoNode. If this occurs, immediately report
the related “system error” shown in the error screen of the GUI interface to FieldServer Technologies
for evaluation.
The RX LED will flash when a message is received on the host port.
The TX LED will flash when a message is sent on the host port.
This is the power light and should show steady green at all times when ProtoNode is powered.
Figure 35: Diagnostic LEDs
Page 42 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix B. Vendor Information - Harsco Industrial Patterson-Kelley
Appendix B.1. ENVI Modbus RTU Mappings to BACnet MS/TP, BACnet/IP, Metasys N2 and LonWorks
Point Name
State (See Note 1)
Supply Temp
Return Temp
DHW Temp
Header Temp
Firing Rate
Flue Gas Temp
HX Temp
Outside Temp
Flame Signal (See Note 2)
CH Setpoint (Read/Write)
DHW Setpoint (Read/Write)
Boiler Operation (Read/Write) (See
Note 3)
High Outdoor Air Temp
(Read/Write)
Min Outdoor Air Setpoint
(Read/Write)
Low Outdoor Air Temp
(Read/Write)
Max Outdoor Air Setpoint
(Read/Write)
Outdoor Air Shutdown Temp
(Read/Write)
Night Setback (Read/Write)
Error Code (See Note 4)
Analog In
Analog Out
Ignitions
Burner High Hours
BACnet
Object
Type
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
AV
AV
AV
1
2
3
4
5
6
7
8
9
10
11
12
13
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
AO
AO
AO
1
2
3
4
5
6
7
8
9
10
11
12
13
nvoState_XXX
nvoSupplyTmp_XXX
nvoReturnTmp_XXX
nvoDHWTmp_XXX
nvoHeaderTmp_XXX
nvoFiringRat_XXX
nvoFluGasTmp_XXX
nvoHXTmp_XXX
nvoOutsidTmp_XXX
nvoFlameSig_XXX
nvi/nvoCHSP_XXX
nvi/nvoDHWSP_XXX
nvi/nvoBlrOpera_XXX
State
Supply Temp
Return Temp
DHW Temp
Header Temp
Firing Rate
Flue Gas Temp
HX Temp
Outside Temp
Flame Signal
CH Setpoint
DHW Setpoint
Boiler Operation
AV
14
AO
14
nvi/nvoHiOATmp_XXX
High Outdoor Air Temp
AV
15
AO
15
nvi/nvoMinOASP_XXX
Min Outdoor Air Setpoint
AV
16
AO
16
nvi/nvoLoOATmp_XXX
Low Outdoor Air Temp
AV
17
AO
17
nvi/nvoMaxOASP_XXX
Max Outdoor Air Setpoint
AV
18
AO
18
nvi/nvoOAShtdnTp_XXX
Outdoor Air Shutdown Temp
AV
AI
AI
AI
AI
AI
19
20
21
22
23
24
AO
AI
AI
AI
AI
AI
19
20
21
22
23
24
nvi/nvoNightStbk_XXX
nvoErrorCode_XXX
nvoAnalogIn_XXX
nvoAnalogOut_XXX
nvoIgnitions_XXX
nvoBrnrHiHrs_XXX
Night Setback
Error Code
Analog In
Analog Out
Ignitions
Burner High Hours
BACnet
Object ID
N2 Data
Type
N2 Point
Address
Page 43 of 54
Lon Name
Lon SNVT
Harsco Patterson Kelley’s ProtoNode Startup Guide
Burner Medium Hours
Burner Low Hours
Water Level
Low Gas Pressure
Air Pressure
Blocked Flue
CH Pump
DHW Pump
Air Damper
High Gas Pressure
ET Error Number (See Note 4)
ET Supply Temp
ET Return Temp
ET DHW Temp
ET Flue Gas Temp
ET HX Temp
ET Outside Temp
Boiler State
Frost Protection
DHW Mode
CH Mode
ET Month
ET Day
ET Year
ET Hours
ET Minutes
ET Day Count High
ET Day Count Low
ET Run Hours
AI
AI
BI
BI
BI
BI
BI
BI
BI
BI
AI
AI
AI
AI
AI
AI
AI
AI
BI
BI
BI
AI
AI
AI
AI
AI
AI
AI
AI
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
51
52
53
AI
AI
DI
DI
DI
DI
DI
DI
DI
DI
AI
AI
AI
AI
AI
AI
AI
AI
DI
DI
DI
AI
AI
AI
AI
AI
AI
AI
AI
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
51
52
53
nvoBrnrMdHrs_XXX
nvoBrnrLoHrs_XXX
nvoWaterLvl_XXX
nvoLoGasPrs_XXX
nvoAirPrs_XXX
nvoBlckdFlue_XXX
nvoCHPump_XXX
nvoDHWPump_XXX
nvoAirDamper_XXX
nvoHiGasPrs_XXX
nvoETErrNum_XXX
nvoETSupTmp_XXX
nvoETRetTmp_XXX
nvoETDHWTmp_XXX
nvoETFluGsTp_XXX
nvoETHXTmp_XXX
nvoETOtsdTmp_XXX
nvoBlrState_XXX
nvoFrstPrtct_XXX
nvoDHWMode_XXX
nvoCHMode_XXX
nvoETMonth_XXX
nvoETDay_XXX
nvoETYear_XXX
nvoETHrs_XXX
nvoETMinutes_XXX
nvoETDyCntHi_XXX
nvoETDyCntLo_XXX
nvoETRunHrs_XXX
Burner Medium Hours
Burner Low Hours
Water Level
Low Gas Pressure
Air Pressure
Blocked Flue
CH Pump
DHW Pump
Air Damper
High Gas Pressure
ET Error Number
ET Supply Temp
ET Return Temp
ET DHW Temp
ET Flue Gas Temp
ET HX Temp
ET Outside Temp
Boiler State
Frost Protection
DHW Mode
CH Mode
ET Month
ET Day
ET Year
ET Hours
ET Minutes
ET Day Count High
ET Day Count Low
ET Run Hours
NOTES:
1) “State” Codes: 1=resetting; 2=standby, waiting for demand; 3=relay circuit check; 4=relay circuit check; 5=pre-purging; 6=pre-purging; 7=pre-ignition
with gas valve closed; 8=ignition with gas valve open; 9=burning; 10=post purging; 11=post purging; 12=post pumping for CH; 13=pumping for CH;
14=post pumping for DHW; 15=pumping for DHW; 16=error handling (locking); 17=error handling (blocking); 18=restarting burner control; 19=error
handling; 20=error handling; 21=error handling
Page 44 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
2) “Flame Signal” Codes: 0=no flame; 128=flame
3) “Boiler Operation” Codes: 0=boiler off & pump off; 1=boiler on & pump auto control; 2=boiler off & pump constantly on; 3=boiler on & pump
constantly on
4) “Error Code” Codes: 1=ignition failure; 4=max ∆T exceeded; 5=internal error gas valve relay; 6=internal error safety relay; 7=rapid rise outlet
temperature; 8=fan wrong speed; 10=internal error E2PROM signal; 11=UV sensor defect; 12=internal error E2PROM error; 15=rapid rise inlet
temperature; 16=internal error 16; 17=rapid rise HX temperature; 18=high limit; 20=late flame; 21=early flame; 24=flame failure; 25=air switch not
open; 26=air switch not close; 30=low water level (ENVI versions 01BD, BD71, and 49A7) or internal error 30 (ENVI versions 6999 and 79F2);
31=low gas pressure (ENVI versions 01BD, BD71, and 49A7) or internal error 31 (ENVI versions 6999 and 79F2); 32=high gas pressure (ENVI
versions 01BD, BD71, and 49A7) or internal error 32 (ENVI versions 6999 and 79F2); 35=internal error 35 (ENVI versions 01BD, BD71, and 49A7)
or high flue temperature (ENVI versions 6999 and 79F2); 36=internal error 36 (ENVI versions 01BD, BD71, and 49A7) or false flame (ENVI
versions 6999 and 79F2); 37=internal error 37 (ENVI versions 01BD, BD71, and 49A7) or low water level (ENVI versions 6999 and 79F2); 38=high
flue temperature (ENVI versions 01BD, BD71, and 49A7) or low gas pressure (ENVI versions 6999 and 79F2); 39=false flame (ENVI versions
01BD, BD71, and 49A7) or blocked flue (ENVI versions 6999 and 79F2); 40=blocked flue (ENVI versions 01BD, BD71, and 49A7) or high inlet
temperature (ENVI versions 6999 and 79F2); 41=high inlet temperature (ENVI versions 01BD, BD71, and 49A7) or reverse flow in/out (ENVI
versions 6999 and 79F2); 42=reverse flow in/out (ENVI versions 01BD, BD71, and 49A7) or N/A (ENVI versions 6999 and 79F2); 43=N/A (ENVI
versions 01BD, BD71, and 49A7) or no ground 60 hertz error (ENVI versions 6999 and 79F2); 44=no ground 60 hertz error (ENVI versions 01BD,
BD71, and 49A7) or line neutral reverse (ENVI versions 6999 and 79F2); 45=line neutral reverse (ENVI versions 01BD, BD71, and 49A7) or line
frequency error (ENVI versions 6999 and 79F2); 46=line frequency error (ENVI versions 01BD, BD71, and 49A7) or faulty ground (ENVI versions
6999 and 79F2); 47=faulty ground (ENVI versions 01BD, BD71, and 49A7) or internal error 47 (ENVI versions 6999 and 79F2); 48=internal error 47
(ENVI versions 01BD, BD71, and 49A7) or wrong boiler type (ENVI versions 6999 and 79F2); 49=wrong boiler type (ENVI versions 01BD, BD71,
and 49A7) or rapid rise HX error (ENVI versions 6999 and 79F2); 50=rapid rise HX error (ENVI versions 01BD, BD71, and 49A7) or N/A (ENVI
versions 6999 and 79F2); 51=N/A (ENVI versions 01BD, BD71, and 49A7) or outlet temperature sensor open (ENVI versions 6999 and 79F2);
52=outlet temperature sensor open (ENVI versions 01BD, BD71, and 49A7) or inlet temperature sensor open (ENVI versions 6999 and 79F2);
53=inlet temperature sensor open (ENVI versions 01BD, BD71, and 49A7) or N/A (ENVI versions 6999 and 79F2); 55=N/A (ENVI versions 01BD,
BD71, and 49A7) or DHW temperature sensor open (ENVI versions 6999 and 79F2); 56=DHW temperature sensor open (ENVI versions 01BD,
BD71, and 49A7) or HX temperature sensor open (ENVI versions 6999 and 79F2); 57=HX temperature sensor open (ENVI versions 01BD, BD71,
and 49A7) or flue temperature sensor open (ENVI versions 6999 and 79F2); 58=flue temperature sensor open (ENVI versions 01BD, BD71, and
49A7) or N/A (ENVI versions 6999 and 79F2); 59=N/A (ENVI versions 01BD, BD71, and 49A7) or outlet temperature sensor short (ENVI versions
6999 and 79F2); 60=outlet temperature sensor short (ENVI versions 01BD, BD71, and 49A7) or inlet temperature sensor short (ENVI versions 6999
and 79F2); 61=inlet temperature sensor short (ENVI versions 01BD, BD71, and 49A7) or N/A (ENVI versions 6999 and 79F2); 63=N/A (ENVI
versions 01BD, BD71, and 49A7) or DHW temperature sensor short (ENVI versions 6999 and 79F2); 64=DHW temperature sensor short (ENVI
versions 01BD, BD71, and 49A7) or HX temperature sensor short (ENVI versions 6999 and 79F2); 65=HX temperature sensor short (ENVI versions
01BD, BD71, and 49A7) or flue temperature sensor short (ENVI versions 6999 and 79F2); 66=flue temperature sensor short (ENVI versions 01BD,
BD71, and 49A7) or internal error 66 (ENVI versions 6999 and 79F2); 67=internal error 66 (ENVI versions 01BD, BD71, and 49A7) or high gas
pressure (ENVI versions 6999 and 79F2); 68=IF communication failure; 69=header sensor open; 70=header sensor short; 71=rapid rise error
Page 45 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix B.2. Love Modbus RTU Mappings to BACnet MS/TP, BACnet/IP, Metasys N2 and LonWorks
Point Name
Process Value (See Note 1)
Setpoint (Read/Write)
Upper-Limit of Temp Range
Lower-Limit of Temp Range
Control Method (Read/Write) (See
Note 2)
PB Proportional Band (Read/Write)
Ti Integral Time (Read/Write)
Td Derivative Time (Read/Write)
Output Value (Read/Write)
Upper-Limit Regulation
(Read/Write)
Lower-Limit Regulation
(Read/Write)
Analog Decimal Setting
(Read/Write)
PID Parameter Selection
(Read/Write)
SV Value (Read/Write)
Alarm 1 Type (Read/Write) (See
Note 3)
Alarm 2 Type (Read/Write) (See
Note 3)
Alarm 3 Type (Read/Write) (See
Note 3)
Upper-Limit Alarm 1 (Read/Write)
Lower-Limit Alarm 1 (Read/Write)
Upper-Limit Alarm 2 (Read/Write)
Lower-Limit Alarm 2 (Read/Write)
Upper-Limit Alarm 3 (Read/Write)
Lower-Limit Alarm 3 (Read/Write)
Setting Lock Status (Read/Write)
(See Note 4)
BACnet
Object Type
AI
AV
AI
AI
AV
BACnet
Object ID
1
2
3
4
5
N2 Data
Type
AI
AO
AI
AI
AO
N2 Point
Address
1
2
3
4
5
nvoProcVal_XXX
nvi/nvoSetpoint_XXX
nvoUpLmTpRng_XXX
nvoLoLmTpRng_XXX
nvi/nvoCtrlMethd_XXX
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
AV
AV
AV
AV
AV
6
7
8
9
10
AO
AO
AO
AO
AO
6
7
8
9
10
nvi/nvoPB_PrpBnd_XXX
nvi/nvoTiIntegTm_XXX
nvi/nvoTdDerTime_XXX
nvi/nvoOutputVal_XXX
nvi/nvoUpLimReg_XXX
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_lev_percent
SNVT_count_inc_f
AV
11
AO
11
nvi/nvoLoLimReg_XXX
SNVT_count_inc_f
AV
12
AO
12
nvi/nvoAnaDecSet_XXX
SNVT_count_inc_f
AV
13
AO
13
nvi/nvoPIDPrmSel_XXX
SNVT_count_inc_f
AV
AV
14
15
AO
AO
14
15
nvi/nvoSVValue_XXX
nvi/nvoAlm1Type_XXX
SNVT_count_inc_f
SNVT_count_inc_f
AV
16
AO
16
nvi/nvoAlm2Type_XXX
SNVT_count_inc_f
AV
17
AO
17
nvi/nvoAlm3Type_XXX
SNVT_count_inc_f
AV
AV
AV
AV
AV
AV
AV
18
19
20
21
22
23
24
AO
AO
AO
AO
AO
AO
AO
18
19
20
21
22
23
24
nvi/nvoUpLimAlm1_XXX
nvi/nvoLoLimAlm1_XXX
nvi/nvoUpLimAlm2_XXX
nvi/nvoLoLimAlm2_XXX
nvi/nvoUpLimAlm3_XXX
nvi/nvoLoLimAlm3_XXX
nvi/nvoSetLkStat_XXX
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
Page 46 of 54
Lon Name
Lon SNVT
Harsco Patterson Kelley’s ProtoNode Startup Guide
Communication Write-in Selection
(See Note 5)
Temp Unit Display Selection
(Read/Write) (See Note 6)
Control RUN/STOP Setting
(Read/Write) (See Note 7)
STOP Setting for PID (Read/Write)
(See Note 8)
Temp STOP for PID (Read/Write)
(See Note 9)
PV Unstable
Re-initialize
PV Value for Error 0002H
Input Sensor Did Not Connect
PV Value for error 0003H
Input Signal Error
PV Value for Error 0004H
Over Input Range
ADC Fail
PV Value for Error 0006H
EEPROM Read/Write error
AI
25
AI
25
nvoComWrinSl_XXX
SNVT_count_inc_f
BV
26
DO
26
nvi/nvoTmpUnit_XXX
SNVT_switch
BV
27
DO
27
nvi/nvoCtrRnStSt_XXX
SNVT_switch
BV
28
DO
28
nvi/nvoStpSetPID_XXX
SNVT_switch
BV
29
DO
29
nvi/nvoTmpStpPID_XXX
SNVT_switch
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
30
31
32
33
34
35
36
37
38
39
40
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
30
31
32
33
34
35
36
37
38
39
40
nvoPV_Unstbl_XXX
nvoRe_init_XXX
nvoPVValEr2H_XXX
nvoInSnNoCnc_XXX
nvoPVValEr3H_XXX
nvoInSigErr_XXX
nvoPVValEr4H_XXX
nvoOvrInRng_XXX
nvoADC_Fail_XXX
nvoPVValEr6H_XXX
nvoEEPROMErr_XXX
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
SNVT_count_inc_f
NOTES:
1) “Process Value” Codes: XXX.X=actual value; 8002H=initial process; 8003H=temperature sensor is not connected; 8004H=temperature sensor input
error; 8006H=Cannot get temperature value. ADC input error; 8007H=Memory read/write error.
2) “Control Mode” Codes: 0=PID; 1=On/Off; 2=manual tuning; 3=PID program control
3) “Alarm Types” Codes: 0=alarm function disabled; 1=deviation upper- and lower-limit; 2=deviation upper-limit; 3=deviation lower-limit; 4=reverse
deviation upper- and lower-limit; 5=absolute value upper- and lower-limit; 6=absolute value upper-limit; 7=absolute value lower-limit; 8=deviation
upper- and lower-limit with standby sequence; 9=deviation upper-limit with standby sequence; 10=deviation lower-limit with standby sequence;
11=hysteresis upper-limit alarm output; 12=hysteresis lower-limit alarm output; and 13=CT alarm output
4) “Setting Lock Status” Codes: 0=normal; 1=all setting lock; 11=lock others than SV value
5) “Communication Write In” Codes: 0=disabled; 1=enabled
6) “Temperature Unit Display Selection” Codes: 0=⁰F; 1=⁰C
7) “Control RUN/STOP Setting” Codes: 0=STOP; 1=RUN
8) “STOP setting for PID program control” Codes: 0=RUN; 1=STOP
9) “Temporary STOP for PID program control” Codes: 0=RUN; 1=temporary STOP
Page 47 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix B.3. Nuro Modbus RTU Mappings to BACnet MS/TP, BACnet/IP, Metasys N2 and LonWorks
Point Name
Supply Temperature
Return Temperature
Stack Temperature
DHW Temperature
Header Temperature
HX Temperature
ODA Temperature Filtered
Extra Field Temperature
Wireless Temperature
Analog Input
Analog Output
Burner Control Digital I/O (See
Note 1)
Burner Control Digital I/O 2 (See
Note 2)
CH Mode Active Setpoint
DHW Mode Active Setpoint
Demand Source (See Note 3)
Active Demand Status (See Note
4)
Boiler State (See Note 5)
Flame Signal
Fan Speed
Firing Rate
Error Code
Error Type (See Note 6)
Burner Control Cycle Count
Burner Control Run Hours
CH Boiler Control (Read/Write)
BMS CH Setpoint (Read/Write)
BMS CH Demand (Read/Write)
DHW Boiler Control (Read/Write)
BACnet
Object Type
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
BACnet
Object ID
1
2
3
4
5
6
7
8
9
10
11
12
N2 Data
Type
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
AI
N2 Point
Address
1
2
3
4
5
6
7
8
9
10
11
12
nvoSupplyTmp_XXX
nvoReturnTmp_XXX
nvoStackTmp_XXX
nvoDHWTmp_XXX
nvoHeaderTmp_XXX
nvoHXTmp_XXX
nvoODATmpFlt_XXX
nvoExtFldTmp_XXX
nvoWirlssTmp_XXX
nvoAnaInput_XXX
nvoAnaOutput_XXX
nvoBrnCtDgIO_XXX
SNVT_temp_p
SNVT_temp_p
SNVT_temp_p
SNVT_temp_p
SNVT_temp_p
SNVT_temp_p
SNVT_temp_p
SNVT_temp_p
SNVT_temp_p
SNVT_count_f
SNVT_count_f
SNVT_count_f
AI
13
AI
13
nvoBrCtDgIO2_XXX
SNVT_count_f
AI
AI
AI
AI
14
15
16
17
AI
AI
AI
AI
14
15
16
17
nvoCHMdActSP_XXX
nvoDHWMdAcSP_XXX
nvoDmdSrc_XXX
nvoActDmdSt_XXX
SNVT_temp_p
SNVT_temp_p
SNVT_count_f
SNVT_count_f
AI
AI
AI
AI
AI
AI
AI
AI
BV
AV
BV
BV
18
19
20
21
22
23
24
25
26
27
28
29
AI
AI
AI
AI
AI
AI
AI
AI
DO
AO
DO
DO
18
19
20
21
22
23
24
25
26
27
28
29
nvoBlrState_XXX
nvoFlameSig_XXX
nvoFanSpeed_XXX
nvoFirRate_XXX
nvoErrCode_XXX
nvoErrType_XXX
nvoBrCtrCyCt_XXX
nvoBrCtrRnHr_XXX
nvi/nvoCHBlrCtrl_XXX
nvi/nvoBMSCHSP_XXX
nvi/nvoBMSCHDmd_XXX
nvi/nvoDHWBlCtrl_XXX
SNVT_count_f
SNVT_count_f
SNVT_count_f
SNVT_lev_percent
SNVT_count_f
SNVT_count_f
SNVT_count_f
SNVT_time_hour
SNVT_switch
SNVT_temp_p
SNVT_switch
SNVT_switch
Page 48 of 54
Lon Name
Lon SNVT
Harsco Patterson Kelley’s ProtoNode Startup Guide
BMS DHW Setpoint (Read/Write)
BMS DHW Tank Setpoint
(Read/Write)
AV
AV
30
31
AO
AO
30
31
nvi/nvoBMSDHWSP_XXX
nvi/nvoBMDHWTkSP_XXX
SNVT_temp_p
SNVT_temp_p
NOTES:
1) “Burner Control Digital I/O” Codes: Bit Map:15=safety relay, 14=night setback input, 13=enable, 12=undefined, 11=undefined, 10=limit control
circuit, 9=damper end switch input, 8=interlock control circuit, 7=alarm relay on, 6=undefined, 5=gas valve open, 4=external ignition on, 3=Relay D
on, 2=Relay C on, 1=Relay B on, 0=Relay A on
2) “Burner Control Digital I/O 2” Codes: Bit Map:15-8= undefined, 7=auxiliary input 2, 6=high gas pressure, 5=high temperature limit, 4=low water cutoff, 3=auxiliary input 1, 2=start interlock 2, 1=start interlock 1, 0=air switch
3) “Demand Source” Codes: 0=none; 1=CHl; 2=DHW; 3=freze protection; 4=manual; 5=CH & DHW; 6=DHW & CH
4) “Active Demand Status” Codes: 0=normal; 1=system pump pre-pump; 2=system pump post-pump; 3=CH pump pre-pump; 4=CH pump post-pump;
5=tank pump pre-pump; 6=tank pump post-pump; 7=DHW pump pre-pump; 8=DHW pump post-pump; 9=waiting anti-cycle; 10=mod back max
temp; 11=low fire hold; 12=limit time to high fire; 13=limit accelerate; 14=limit decelerate; 15=waiting for mode demand; 16=waiting for boiler to start;
17=CH pump running; 18=system pump running; 19=DHW pump running; 20=tank pump running
5) “Boiler State” Codes: 0=waiting for communication; 1=standby; 2=lockout; 3=hold; 4=waiting for air switch close; 5=waiting for air switch open;
6=opening damper; 7=waiting for damper to open; 8=pre-purge; 9=post purge; 10=run; 11=mod back delta temp; 12=mod back max temp; 13=mod
back stack temp; 14=pre-ignition; 15=ignition; 16=mod back delta temp exceeded; 17=mod back max temp exceeded; 18=mod back stack temp
exceeded; 19=rate modified by air switch; 20=rate modified by outlet temperature; 21=rate modified by delta limit; 22=rate modified by stack limit;
23=starting; 24=fan only; 25=stopping
6) “Error Type” Codes: 0=no error; 1=lockout; 2=boiler hold; 3=mode hold; 4=alert caused alarm
Page 49 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix C. “A” Bank DIP Switch Settings
Appendix C.1. “A” Bank DIP Switch Settings
Address
A0
A1
A2
A3
A4
A5
A6
A7
Address
A0
A1
A2
A3
A4
A5
A6
A7
1
On
Off
Off
Off
Off
Off
Off
Off
46
Off
On
On
On
Off
On
Off
Off
2
Off
On
Off
Off
Off
Off
Off
Off
47
On
On
On
On
Off
On
Off
Off
3
On
On
Off
Off
Off
Off
Off
Off
48
Off
Off
Off
Off
On
On
Off
Off
4
Off
Off
On
Off
Off
Off
Off
Off
49
On
Off
Off
Off
On
On
Off
Off
5
On
Off
On
Off
Off
Off
Off
Off
50
Off
On
Off
Off
On
On
Off
Off
6
Off
On
On
Off
Off
Off
Off
Off
51
On
On
Off
Off
On
On
Off
Off
7
On
On
On
Off
Off
Off
Off
Off
52
Off
Off
On
Off
On
On
Off
Off
8
Off
Off
Off
On
Off
Off
Off
Off
53
On
Off
On
Off
On
On
Off
Off
9
On
Off
Off
On
Off
Off
Off
Off
54
Off
On
On
Off
On
On
Off
Off
10
Off
On
Off
On
Off
Off
Off
Off
55
On
On
On
Off
On
On
Off
Off
11
On
On
Off
On
Off
Off
Off
Off
56
Off
Off
Off
On
On
On
Off
Off
12
Off
Off
On
On
Off
Off
Off
Off
57
On
Off
Off
On
On
On
Off
Off
13
On
Off
On
On
Off
Off
Off
Off
58
Off
On
Off
On
On
On
Off
Off
14
Off
On
On
On
Off
Off
Off
Off
59
On
On
Off
On
On
On
Off
Off
15
On
On
On
On
Off
Off
Off
Off
60
Off
Off
On
On
On
On
Off
Off
16
Off
Off
Off
Off
On
Off
Off
Off
61
On
Off
On
On
On
On
Off
Off
17
On
Off
Off
Off
On
Off
Off
Off
62
Off
On
On
On
On
On
Off
Off
18
Off
On
Off
Off
On
Off
Off
Off
63
On
On
On
On
On
On
Off
Off
19
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Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix D. Reference
Appendix D.1. Specifications
ProtoNode FPC-N34
Electrical
Connections
Approvals:
ProtoNode FPC-N35
One 6-pin Phoenix connector with:
One 6-pin Phoenix connector with:
RS-485 port (+ / - / gnd)
RS-485 port (+ / - / gnd)
Power port (+ / - / Frame-gnd)
Power port (+ / - / Frame-gnd)
One 3-pin Phoenix connector with:
One Ethernet 10/100BaseT port
RS-485 port (+ / - / gnd)
One FTT-10 LonWorks port
One Ethernet 10/100BaseT port
CE Certified; TUV approved to UL 916, EN 60950-1, EN 50491-3 and CSA C22-2
standards;
FCC Class A Part 15; DNP3 Conformance Tested; OPC Self-tested for Compliance;
RoHS Compliant; CSA 205 Approved
BTL Marked
LonMark Certified
Power
Multi-mode power adapter: 9-30VDC or 12 - 24VAC
Requirements
Physical
11.5 cm L x 8.3 cm W x 4.1 cm H (4.5 x 3.2 x 1.6 in.)
Dimensions
Weight:
0.2 kg (0.4 lbs)
Operating
-40°C to 75°C (-40°F to167°F)
Temperature:
Surge
EN61000-4-2 ESD EN61000-4-3 EMC EN61000-4-4 EFT
Suppression
Humidity:
5 - 90% RH (non-condensing)
(Specifications subject to change without notice)
Figure 36: Specifications
Appendix D.1.1.
Compliance with UL Regulations
For UL compliance, the following instructions must be met when operating ProtoNode.
 The units shall be powered by listed LPS or Class 2 power supply suited to the expected
operating temperature range.

The interconnecting power connector and power cable shall:
 Comply with local electrical code.
 Be suited to the expected operating temperature range.
 Meet the current and voltage rating for ProtoNode/Net

Furthermore, the interconnecting power cable shall:
 Be of length not exceeding 3.05m (118.3”)
 Be constructed of materials rated VW-1 or FT-1 or better
If the unit is to be installed in an operating environment with a temperature above 65 °C, it should
be installed in a Restricted Access Area requiring a key or a special tool to gain access


This device must not be connected to a LAN segment with outdoor wiring.
Page 53 of 54
Harsco Patterson Kelley’s ProtoNode Startup Guide
Appendix E. Limited 2 Year Warranty
Sierra Monitor Corporation warrants its products to be free from defects in workmanship or
material under normal use and service for two years after date of shipment. Sierra Monitor
Corporation will repair or replace any equipment found to be defective during the warranty
period. Final determination of the nature and responsibility for defective or damaged equipment
will be made by Sierra Monitor Corporation personnel.
All warranties hereunder are contingent upon proper use in the application for which the product
was intended and do not cover products which have been modified or repaired without Sierra
Monitor Corporation’s approval or which have been subjected to accident, improper
maintenance, installation or application, or on which original identification marks have been
removed or altered. This Limited Warranty also will not apply to interconnecting cables or wires,
consumables or to any damage resulting from battery leakage.
In all cases Sierra Monitor Corporation’s responsibility and liability under this warranty shall be
limited to the cost of the equipment. The purchaser must obtain shipping instructions for the
prepaid return of any item under this warranty provision and compliance with such instruction
shall be a condition of this warranty.
Except for the express warranty stated above, Sierra Monitor Corporation disclaims all
warranties with regard to the products sold hereunder including all implied warranties of
merchantability and fitness and the express warranties stated herein are in lieu of all obligations
or liabilities on the part of Sierra Monitor Corporation for damages including, but not limited to,
consequential damages arising out of/or in connection with the use or performance of the
product.
Page 54 of 54