eng-eth installation instructions revc 8-3-2015 power monitoring/pdfs/eng-eth installation... ·...

August 2015 WE MAKE IT EASY | KELE.COM | 888-397-5353

MODEL ENG-ETH INSTALLATION INSTRUCTIONS

Description The ENG-ETH is a multi-protocol Ethernet communication module for the “endicator” Intelligent Energy Meter. The ENG-ETH reads data from the endicator main processor, formats it, and transmits the data over BACnet/IP, Modbus/TCP, or EtherNet/IP. The ENG-ETH also hosts its own website where meter measurements may be viewed and email alerts generated. The ENG-ETH allows all of the power system parameters measured by endicator to be monitored over Ethernet. The ENG-ETH also supports two external digital inputs.

Features • Monitors all endicator parameters over Ethernet using a dual port switch • Supports all protocols simultaneously, no need to enable a particular protocol • Allows remote reset of KWH and Peak KW parameters • Network parameters configurable through the endicator keypad or Desktop Software • Remote monitoring of parameters through the web server • Up to 10 unique email alert messages sent to as many as 4 recipients • Pluggable field-wiring screw terminals • Module and network LED indicators • Factory or field installation in any endicator meter.

Specifications

Item Specification

Power Supply None required (powered by endicator)

Network BACnet/IP, Modbus/TCP, EtherNet/IP

Field Wiring Pluggable screw terminals

Dimensions 4.5”H x 2.6”W x 0.6“D (11.4 x 6.6 x 1.5 cm)

Operating Environment Indoors, less than 1000m above sea level, do not expose to direct sunlight or corrosive / explosive gasses

Operating Temperature -10 ∼ +50°C (+14 ∼ +122°F)

Storage Temperature -40 ∼ +85°C (-40 ∼ +185°F)

Humidity 0% ∼ 95% noncondensing

Weight 0.1 lb (0.05kg)

This device is lead-free / RoHS-compliant.


ENG-ETH Dual-Port Switch

The ENG-ETH includes two RJ-45 Ethernet jacks and a built-in dual port switch. This allows flexibility in how the ENG-ETH is connected to Ethernet. If an existing Ethernet device is located near the desired location for the ENG-ETH, the cable to the existing device may be moved to the ENG-ETH and an extender cable run from the second jack on the ENG-ETH to the existing device. This allows adding the ENG-ETH without consuming another port on the supporting Ethernet hub/switch. If the ENG-ETH is cabled to its own port on the supporting hub/switch, then the second ENG-ETH jack may be used to connect a local laptop PC to the ENG-ETH without disturbing the facility Ethernet connection.

Installation of the ENG-ETH Module If the ENG-ETH option was ordered with the endicator meter, it will be pre-installed at Kele. If the ENG-ETH is to be field installed, follow these steps: *** De-energize the high voltage L1-L2-L3 source before performing the following installation:

1. Ground yourself before removing the ENG-ETH module from its anti-static bag. The ENG-ETH module is static sensitive!

2. Remove the two internal access screws on the right side of the endicator keypad panel. Open the panel by lifting up on the right edge. The panel will swing open and allow easier access to the meter.

3. Turn off the endicator power by removing the 24 VAC terminal block on the upper left. Plug the ribbon cable header of the ENG-ETH into the “Network Card Ribbon Cable” socket on the endicator main processor board. You may want to unplug the faceplate ribbon cable from the motherboard to gain easier access to the network cable socket.

4. Lower the ENG-ETH board assembly over the two standoffs located in the middle of the endicator main processor board. Orient the assembly so that the ribbon cable is in the upper right corner. Install the two screws to secure the ENG-ETH board to the standoffs.

5. Connect the Ethernet CAT-5 network cables to the Ethernet jacks on the ENG-ETH board. 6. If you unplugged the faceplate ribbon cable earlier, plug it back into the motherboard. 7. Restore power to the endicator by plugging the 24 VAC terminal block back in. 8. This completes installation of the ENG-ETH Multi-Protocol Communication Module.

Status LED Indication The ENG-ETH contains several different LED indicators, each of which conveys important information about the status of the unit and the network. These LEDs and their functions are summarized here.

Module Status The ENG-ETH has one red/green LED located in the lower left-hand side of the ENG-ETH. On startup, the LED blinks a startup sequence: green…red. Always confirm this sequence upon powering the endicator to ensure the ENG-ETH is functioning properly. This LED conforms to the prescribed “module status LED” behavior as dictated in the EtherNet/IP specification. Solid green ............ The module status LED lights solid green when the ENG-ETH has power and is

functioning normally. Flashing red .......... If a fatal error occurs, the module status LED will flash a red error code. Please

take note of the flashing 3-digit error code before contacting technical support.


Network Status The ENG-ETH has one red/green LED located in the lower left-hand side of the ENG-ETH. On startup, the LED blinks a startup sequence: green…red. Always confirm this sequence upon powering the endicator to ensure the ENG-ETH is functioning properly. This LED conforms to the prescribed “network status LED” behavior as dictated in the EtherNet/IP specification. If a protocol other than EtherNet/IP is utilized, ignore this LED. Flashing green ...... Idle/Ready state. Ready to accept an EtherNet/IP connection. Solid green ............ Established an EtherNet/IP connection. Flashing red .......... EtherNet/IP connection timed out.


Configuration of the ENG-ETH Network Parameters The basic network parameters for the ENG-ETH are configured through the endicator keypad under the “Config Comms” menu option or through the endicator Desktop Software. This section details each parameter.

Common Parameters This section details the parameters used by multiple protocols. The IT Department of the building where endicator is installed may need to provide you with some of this information. Nwk Dev Name ..... Enter the device name for the ENG-ETH to be used on the EtherNet/IP and

BACnet/IP network. This value must be at least one character and is restricted to printable characters.

Nwk Mtr Config ..... Select “Y” to allow meter configuration over the network. Setting this parameter to

“Y” will allow meter configuration parameters to be written from the network. IP Address ............ Enter the IP address for the ENG-ETH to be used on the network. This must be a

Static IP address, the ENG-ETH does not support DHCP address assignment. Subnet Mask ......... Enter the subnet mask for the ENG-ETH to be used on the network. Gateway ................ Enter the default gateway for the ENG-ETH to be used on the network. DNS1 .................... Enter the IP address of the primary domain name server for ENG-ETH to use on

the network. If Email Alerts are not used, it is not necessary to provide DNS information.

DNS2 .................... (Optional) Enter the IP address of the secondary domain name server for the ENG-

ETH to use on the network. If Email Alerts are not used, it is not necessary to provide DNS information.

BACnet Parameters This section details the additional parameters that must be set when using BACnet. Dev Instance # ...... Enter the device instance number for the ENG-ETH to reside at on the network.

Modbus Parameters This section details the additional parameters that must be set when using Modbus. Rtn Data Order ...... This parameter configures the returned data order for 32-bit parameters. Select

“Rtn Low 1st” to return the least-significant, 16-bit word first. Select “Rtn High 1st” to return the most-significant, 16-bit word first.


BACnet /IP The ENG-ETH module supports the BACnet/IP (Annex J) protocol over Ethernet via UDP port 47808. The BACnet device object is always present and must be properly configured (refer to Configuration of the ENG-ETH Network Parameters).

BACnet Point Mapping The following tables provide a list of the endicator data points that are mapped to the BACnet/IP network. All Analog Input and Binary Input object types are read-only. If an invalid object is requested, an appropriate error message will be transmitted by the ENG-ETH to the network. Items with a * must be converted from floating point to decimal before examining the byte or bit values.

Table 1: List of BACnet Analog Input Objects

Object Type Object Instance Description Units Notes

AI 1 Serial Number AI 2 Firmware Version

AI 3 Auto/Manual Wiring Configuration

0 = Volt-amp matching and CT polarities were manually configured. 1 = Volt-amp matching and CT polarities were auto-configured.

AI 4 Total KW KW AI 5 Sliding Window KW KW AI 6 Total KVAR KVAR AI 7 Total KVA KVA AI 8 Phase A KW KW AI 9 Phase B KW KW AI 10 Phase C KW KW AI 11 Phase A KVAR KVAR AI 12 Phase B KVAR KVAR AI 13 Phase C KVAR KVAR AI 14 Phase A KVA KVA AI 15 Phase B KVA KVA AI 16 Phase C KVA KVA AI 17 Total Power Factor AI 18 Phase A Power Factor AI 19 Phase B Power Factor AI 20 Phase C Power Factor AI 21 Average LL Volts VOLTS AI 22 Average LN Volts VOLTS AI 23 L1-L2 Volts VOLTS AI 24 L2-L3 Volts VOLTS AI 25 L3-L1 Volts VOLTS AI 26 L1-N Volts VOLTS AI 27 L2-N Volts VOLTS AI 28 L3-N Volts VOLTS AI 29 Average Amps AMPS AI 30 Phase A Amps AMPS AI 31 Phase B Amps AMPS AI 32 Phase C Amps AMPS AI 33 Total Pos KWH KWH



AI 34 Total Neg KWH KWH AI 35 Total Abs KWH KWH AI 36 Total Net KWH KWH AI 37 Total Pos KVARH AI 38 Total Neg KVARH AI 39 Total Abs KVARH AI 40 Total Net KVARH AI 41 Total KVAH AI 42 Phase A Pos KWH KWH AI 43 Phase B Pos KWH KWH AI 44 Phase C Pos KWH KWH AI 45 Phase A Neg KWH KWH AI 46 Phase B Neg KWH KWH AI 47 Phase C Neg KWH KWH AI 48 Phase A Pos KVARH AI 49 Phase B Pos KVARH AI 50 Phase C Pos KVARH AI 51 Phase A Neg KVARH AI 52 Phase B Neg KVARH AI 53 Phase C Neg KVARH AI 54 Phase A Pos KVAH AI 55 Phase B Pos KVAH AI 56 Phase C Pos KVAH AI 57 Peak Sliding Window KW KW AI 58 Frequency HZ AI 59 Clear Totalizers Year

AI 60 Clear Totalizers Day* Month Least significant byte = Day (1 – 31)

Next byte = Month (1 – 12)

AI 61 Clear Totalizers Time* Least significant byte = Minutes (0 – 59) Next byte = Hours (0 – 23)

AI 62 Peak Window KW Year

AI 63 Peak Window KW Day* Month Least significant byte = Day (1 – 31)


AI 64 Peak Window KW Time* Least significant byte = Minutes (0 – 59) Next byte = Hours (0 – 23)

AI 65 Clear Peak KW Year

AI 66 Clear Peak KW Day* Month Least significant byte = Day (1 – 31)


AI 67 Clear Peak KW Time* Least significant byte = Minutes (0 – 59) Next byte = Hours (0 – 23)

AI 68 External Pulse Count 1 AI 69 External Pulse Count 2


Table 2: List of BACnet Analog Value Objects


AV 1 Power System Type

0 = 3-Wire Delta 1 = 4-Wire Wye 2 = 2-Wire Single Phase 3 = 3-Wire Single Phase 4 = 4-Wire Delta

AV 2 Full Scale Volts VOLTS Range 120 – 32000 AV 3 Full Scale Amps AMPS Range 5 – 6000

AV 4 CT Type

0 = Safe-CTs non-matched 1 = 5A CTs non-matched 2 = Safe-CTs matched set 3 = 5A CTs matched set

AV 5 ‘A’ Phase Cal Number Range 9500 – 10500 AV 6 ‘B’ Phase Cal Number Range 9500 – 10500 AV 7 ‘C’ Phase Cal Number Range 9500 – 10500

AV 8 Volt-Amp Pairing

0 = L1/CTA L2/CTB L3/CTC (normal) 1 = L1/CTB L2/CTA L3/CTC 2 = L1/CTA L2/CTC L3/CTB 3 = L1/CTC L2/CTB L3/CTA 4 = L1/CTC L2/CTA L3/CTB 5 = L1/CTB L2/CTC L3/CTA

AV 9 CTA Polarity 0 = Normal 1 = Reversed

AV 10 CTB Polarity 0 = Normal 1 = Reversed

AV 11 CTC Polarity 0 = Normal 1 = Reversed

AV 12 KW Sliding Window Period MINUTES Range 5 – 60

AV 13 Contact 1 Function

0 = Positive KWH pulse 1 = Negative KWH pulse 2 = Low Volts alarm N.O 3 = Low Volts alarm N.C. 4 = Unbalanced Volts alarm N.O. 5 = Unbalanced Volts alarm N.C. 6 = Low OR Unbal Volts alarm N.O. 7 = Low OR Unbal Volts alarm N.C.

AV 14 Contact 2 Function

0 = Positive KWH pulse 1 = Negative KWH pulse 2 = Low Volts alarm N.O 3 = Low Volts alarm N.C. 4 = Unbalanced Volts alarm N.O. 5 = Unbalanced Volts alarm N.C. 6 = Low OR Unbal Volts alarm N.O. 7 = Low OR Unbal Volts alarm N.C.

AV 15 Minimum KWH Pulse Width MILLISECONDS Range 50 – 2000, 50 ms increments

AV 16 KWH Per Pulse KWH

0 = 0.01 KWH/pulse 1 = 0.1 KWH/pulse 2 = 1 KWH/pulse 3 = 10 KWH/pulse

AV 17 Low Volts Alarm Threshold PERCENT Range 50 – 99 (0 = alarm disabled)

AV 18 Unbalanced Volts Alarm Threshold PERCENT Range 1 – 8 (0 = alarm disabled)



AV 19 mA Output Function

0 = Total Positive KW 1 = Total Bidirectional KW 2 = Sliding Window KW 3 = Peak Window KW 4 = Total KVA 5 = Total Power Factor 6 = Average amps 7 = Average volts 8 = Network Control

AV 20 Name Tag Part 1*

Least significant byte = First ASCII character Next significant byte = Next ASCII character











AV 26 Displayed Values 1*

Each bit is a flag for that data item to be displayed. Bit = 0 means do not display, bit = 1 means display Total KW (Bit 0) Sliding Window KW (Bit 1) Total KVAR (Bit 2) Total KVA (Bit 3) Phase A KW (Bit 4) Phase B KW (Bit 5) Phase C KW (Bit 6) Phase A KVAR (Bit 7) Phase B KVAR (Bit 8) Phase C KVAR (Bit 9) Phase A KVA (Bit 10) Phase B KVA (Bit 11) Phase C KVA (Bit 12) Total Power Factor (Bit 13) Phase A Power Factor (Bit 14) Phase B Power Factor (Bit 15)




Each bit is a flag for that data item to be displayed. Bit = 0 means do not display, bit = 1 means display Phase C Power Factor (Bit 0) Average LL Volts (Bit 1) Average LN Volts (Bit 2) L1-L2 Volts (Bit 3) L2-L3 Volts (Bit 4) L3-L1 Volts (Bit 5) L1-N Volts (Bit 6) L2-N Volts (Bit 7) L3-N Volts (Bit 8) Average Amps (Bit 9) A Amps (Bit 10) B Amps (Bit 11) C Amps (Bit 12) Total Positive KWH (Bit 13) Total Negative KWH (Bit 14) Total Absolute KWH (Pos + Neg) (Bit 15)


Each bit is a flag for that data item to be displayed. Bit = 0 means do not display, bit = 1 means display Total Net KWH (Pos – Neg) (Bit 0) Total Positive KVARH (Bit 1) Total Negative KVARH (Bit 2) Total KVARH (Pos+Neg) (Bit 3) Net KVARH (Pos-Neg) (Bit 4) Total KVAH (Bit 5) A Positive KWH (Bit 6) B Positive KWH (Bit 7) C Positive KWH (Bit 8) A Negative KWH (Bit 9) B Negative KWH (Bit 10) C Negative KWH (Bit 11) A Positive KVARH (Bit 12) B Positive KVARH (Bit 13) C Positive KVARH (Bit 14) A Negative KVARH (Bit 15)


Each bit is a flag for that data item to be displayed. Bit = 0 means do not display, bit = 1 means display B Negative KVARH (Bit 0) C Negative KVARH (Bit 1) A KVAH (Bit 2) B KVAH (Bit 3) C KVAH (Bit 4) Peak Sliding Window KW (Bit 6) External Input #1 (Bit 7) External Input #2 (Bit 8) Frequency (Bit 11) Name Tag (Bit 15)



AV 30 Display Action

0 = No icons, no rotate 1 = Show icons, no rotate 2 = No icons, rotate 3 = Show icons, rotate display

AV 31 Year

AV 32 Day Month* Least significant byte = Day (1 – 31) Next byte = Month (1 – 12)

AV 33 Time* Least significant byte = Minutes (0 – 59) Next byte = Hours (0 – 23)

AV 34 Aux Input #1 Display Format 0 = Display as pulse counter

1 = Display as input level

AV 35 Aux Input #2 Display Format 0 = Display as pulse counter

1 = Display as input level

Table 3: List of BACnet Analog Output Objects


AO 1 Clear Totalizers Writing any value will clear the totalizers. This value self-resets to 0 after being written.

AO 2 Clear Peak Sliding Window

Writing any value will clear the peak sliding window. This value self-resets to 0 after being written.

AO 3 Clear External Input Pulse Count 1

Writing any value will clear the pulse count. This value self-resets to 0 after being written.

AO 4 Clear External Input Pulse Count 2


AO 5 Output Contacts AO 6 4-20 mA Output

Table 4: List of BACnet Binary Input Objects

Object Type Object Instance Description Notes

BI 1 External Input 1 BI 2 External Input 2 BI 3 Low Volts Alarm BI 4 Unbalanced Volts Alarm

Table 5: List of BACnet Binary Value Objects


BV 1 Display Total KW

BV 2 Display Sliding Window KW

BV 3 Display Total KVAR BV 4 Display Total KVA BV 5 Display Phase A KW BV 6 Display Phase B KW BV 7 Display Phase C KW BV 8 Display Phase A KVAR BV 9 Display Phase B KVAR BV 10 Display Phase C KVAR



BV 11 Display Phase A KVA BV 12 Display Phase B KVA BV 13 Display Phase C KVA

BV 14 Display Total Power Factor

BV 15 Display Phase A Power Factor

BV 16 Display Phase B Power Factor

BV 17 Display Phase C Power Factor

BV 18 Display Average LL Volts BV 19 Display Average LN Volts BV 20 Display L1-L2 Volts BV 21 Display L2-L3 Volts BV 22 Display L3-L1 Volts BV 23 Display L1-N Volts BV 24 Display L2-N Volts BV 25 Display L3-N Volts BV 26 Display Average Amps BV 27 Display A Amps BV 28 Display B Amps BV 29 Display C Amps

BV 30 Display Total Positive KWH

BV 31 Display Total Negative KWH

BV 32 Display Total Abs KWH BV 33 Display Total Net KWH

BV 34 Display Total Positive KVARH

BV 35 Display Total Negative KVARH

BV 36 Display Total KVARH BV 37 Display Net KVARH BV 38 Display Total KVAH BV 39 Display A Positive KWH BV 40 Display B Positive KWH BV 41 Display C Positive KWH BV 42 Display A Negative KWH BV 43 Display B Negative KWH BV 44 Display C Negative KWH BV 45 Display A Positive KVARH BV 46 Display B Positive KVARH

BV 47 Display C Positive KVARH

BV 48 Display A Negative KVARH

BV 49 Display B Negative KVARH

BV 50 Display C Negative KVARH

BV 51 Display A KVAH BV 52 Display B KVAH



BV 53 Display C KVAH

BV 54 Display Peak Sliding Window

BV 55 Display External Input 1 BV 56 Display External Input 2 BV 57 Display Frequency BV 58 Display Name Tag

Table 6: List of BACnet Binary Output Objects


BO 1 Clear Totalizers Setting this active will clear the totalizers. This value self-resets to inactive after being written.

BO 2 Clear Peak Sliding Window

Setting this active will clear the peak sliding window. This value self-resets to inactive after being written.

BO 3 Clear External Input Pulse Count 1

Setting this active will clear the pulse count. This value self-resets to inactive after being written.

BO 4 Clear External Input Pulse Count 2

Setting this active will clear the pulse count. This value self-resets to inactive after being written.

Protocol Implementation Conformance Statement (PICS) BACnet Protocol

Date: September 25, 2013 Vendor Name: Kele Product Name: Kele endicator Power Meter Product Model Number: ENG-ETH Applications Software Version: V1.002 Firmware Revision: V1.002 BACnet Protocol Revision: 2 Product Description:

The Kele endicator Intelligent EnergyMeter monitors and records numerous power system parameters.

BACnet Standard Device Profile (Annex L):

BACnet Operator Workstation (B-OWS) BACnet Building Controller (B-BC) BACnet Advanced Application Controller (B-AAC) BACnet Application Specific Controller (B-ASC) BACnet Smart Sensor (B-SS) BACnet Smart Actuator (B-SA)

BACnet Interoperability Building Blocks Supported (Annex K):

Data Sharing – ReadProperty-B (DS-RP-B) Data Sharing – ReadPropertyMultiple-B (DS-RPM-B) Data Sharing – WriteProperty-B (DS-WP-B) Device Management – Dynamic Device Binding-B (DM-DDB-B) Device Management – Dynamic Object Binding-B (DM-DOB-B)


Segmentation Capability:

None

Segmented requests supported Window Size ________ Segmented responses supported Window Size ________

Standard Object Types Supported:

See “Object Types/Property Support Table”. Data Link Layer Options:

BACnet/IP, (Annex J) BACnet/IP, (Annex J), Foreign Device ISO 8802-3, Ethernet (Clause 7) ANSI/ATA 878.1, 2.5 Mb. ARCNET (Clause 8) ANSI/ATA 878.1, RS-485 ARCNET (Clause 8), baud rate(s) ______ MS/TP master (Clause 9), baud rate(s): 9600, 19200, 38400, 76800 MS/TP slave (Clause 9), baud rate(s): ______ Point-To-Point, EIA 232 (Clause 10), baud rate(s): ______ Point-To-Point, modem, (Clause 10), baud rate(s): ______ LonTalk, (Clause 11), medium: ______ Other: ______

Device Address Binding:

Is static device binding supported? (This is currently for two-way communication with MS/TP slaves and certain other devise.) Yes No Networking Options:

Router, Clause 6 - List all routing configurations Annex H, BACnet Tunneling Router over IP BACnet/IP Broadcast Management Device (BBMD)

Does the BBMD support registrations by Foreign Devices? Yes No Character Sets Supported:

Indicating support for multiple character sets does not imply that they can all be supported simultaneously.

ANSI X3.4 IBM™/Microsoft™ DBCS ISO 8859-1 ISO 10646 (UCS-2) ISO 10646 (UCS-4) JIS C 6226

If this product is a communication gateway, describe the types of non-BACnet equipment/networks(s) that the gateway supports: N/A

Data Types Supported:

The following table summarizes the data types that are accepted (in the case of a write property service) and returned (in the case of a read property service) when targeting the present value property of each supported object type.


Object Type Service

Read Property Write Property

Analog Value Real Real, Unsigned, Integer, Null

Analog Output Real Real, Unsigned, Integer, Null

Analog Input Real N/A

Binary Value Enumerated Enumerated, Boolean, Real, Unsigned, Integer, Null

Binary Output Enumerated Enumerated, Boolean, Real, Unsigned, Integer, Null

Binary Input Enumerated N/A

Notes: • The Null data type is used to relinquish a previously-commanded entry at the targeted priority in the

priority array.


Object Types/Property Support Table

Table 7: BACnet Object Types /Properties Supported

Property Object Type

Device Binary Input

Binary Output

Binary Value

Analog Input

Analog Output

Analog Value

Object Identifier R R R R R R R Object Name R R R R R R R Object Type R R R R R R R System Status R Vendor Name R Vendor Identifier R Model Name R Firmware Revision R Appl Software Revision R Protocol Version R Protocol Revision R Services Supported R Object Types Supported R Object List R Max APDU Length R Segmentation Support R APDU Timeout R Number APDU Retries R Max Master Max Info Frames Device Address Binding R Database Revision R Present Value R W W R W W Status Flags R R R R R R Event State R R R R R R Reliability R R R R R R Out-of-Service R R R R R R Units R R R Priority Array R R R R Relinquish Default R R R R Polarity R R Active Text R R R Inactive Text R R R

R – readable using BACnet services W – readable and writable using BACnet services


Modbus/TCP The ENG-ETH module supports Schneider Electric’s Modbus/TCP protocol, release 1.0. The interface is conformance class 0 and partial class 1 compliant, and allows up to 8 simultaneous Modbus/TCP client connections (sockets).

Table 8: Supported Modbus/TCP Functions Function

Code Function Modbus/TCP Class

3 Read multiple registers 0

4 Read input registers 1

6 Write single register 1

16 Write multiple registers 0

Other notes of interest are:

• Because the transaction is handled locally within the ENG-ETH, write data checking is not available. For example, if a write is performed to a register with a data value that is out-of-range of the corresponding parameter, no Modbus exception will be immediately returned.

• The “unit identifier” (UI) field of the request packets is ignored and will not cause the request to fail. The UI is simply echoed in the response.

Modbus Point Mapping The following tables provide a list of the endicator data points that are mapped to the Modbus network. All Input Registers are read-only. If an invalid register number is requested, an appropriate error message will be transmitted by the ENG-ETH to the network. Note that all registers are 32-bit registers and are composed of two 16-bit Modbus register addresses. All registers are integer values, unless otherwise indicated. 16-bit Modbus registers must be requested in pairs and start with an odd register number. Floating point parameters must be requested separately from integer parameters, otherwise the module will respond with an error. Note that the word endianness must be set appropriately (refer to Modbus Parameters).

Table 9: List of Modbus Input Registers

Register Type

Register Number Description Notes

Input 30001 Serial Number 30002

Input 30003 Firmware Version 32-bit IEEE Floating Point 30004

Input 30005

Auto/Manual Wiring Configuration

0 = Volt-amp matching and CT polarities were manually configured. 1 = Volt-amp matching and CT polarities were auto-configured. 30006

Input 30007 Total KW 32-bit IEEE Floating Point 30008

Input 30009

Sliding Window KW 32-bit IEEE Floating Point 30010

Input 30011 Total KVAR 32-bit IEEE Floating Point 30012

Input 30013

Total KVA 32-bit IEEE Floating Point 30014


Register Type


Input 30015

Phase A KW 32-bit IEEE Floating Point 30016

Input 30017 Phase B KW 32-bit IEEE Floating Point 30018

Input 30019

Phase C KW 32-bit IEEE Floating Point 30020

Input 30021 Phase A KVAR 32-bit IEEE Floating Point 30022

Input 30023 Phase B KVAR 32-bit IEEE Floating Point 30024

Input 30025 Phase C KVAR 32-bit IEEE Floating Point 30026

Input 30027 Phase A KVA 32-bit IEEE Floating Point 30028

Input 30029

Phase B KVA 32-bit IEEE Floating Point 30030

Input 30031 Phase C KVA 32-bit IEEE Floating Point 30032

Input 30033

Total Power Factor 32-bit IEEE Floating Point 30034

Input 30035 Phase A Power Factor 32-bit IEEE Floating Point 30036

Input 30037

Phase B Power Factor 32-bit IEEE Floating Point 30038

Input 30039 Phase C Power Factor 32-bit IEEE Floating Point 30040

Input 30041

Average LL Volts 32-bit IEEE Floating Point 30042

Input 30043 Average LN Volts 32-bit IEEE Floating Point 30044

Input 30045 L1-L2 Volts 32-bit IEEE Floating Point 30046



Input 30051

L1-N Volts 32-bit IEEE Floating Point 30052

Input 30053 L2-N Volts 32-bit IEEE Floating Point 30054

Input 30055

L3-N Volts 32-bit IEEE Floating Point 30056

Input 30057 Average Amps 32-bit IEEE Floating Point 30058

Input 30059

Phase A Amps 32-bit IEEE Floating Point 30060

Input 30061 Phase B Amps 32-bit IEEE Floating Point 30062

Input 30063

Phase C Amps 32-bit IEEE Floating Point 30064

Input 30065 Total Pos KWH 32-bit IEEE Floating Point 30066 Input 30067 Total Neg KWH 32-bit IEEE Floating Point


Register Type


30068

Input 30069 Total Abs KWH 32-bit IEEE Floating Point 30070

Input 30071 Total Net KWH 32-bit IEEE Floating Point 30072

Input 30073 Total Pos KVARH 32-bit IEEE Floating Point 30074

Input 30075

Total Neg KVARH 32-bit IEEE Floating Point 30076

Input 30077 Total Abs KVARH 32-bit IEEE Floating Point 30078

Input 30079

Total Net KVARH 32-bit IEEE Floating Point 30080

Input 30081 Total KVAH 32-bit IEEE Floating Point 30082

Input 30083

Phase A Pos KWH 32-bit IEEE Floating Point 30084

Input 30085 Phase B Pos KWH 32-bit IEEE Floating Point 30086

Input 30087 Phase C Pos KWH 32-bit IEEE Floating Point 30088

Input 30089 Phase A Neg KWH 32-bit IEEE Floating Point 30090

Input 30091 Phase B Neg KWH 32-bit IEEE Floating Point 30092

Input 30093

Phase C Neg KWH 32-bit IEEE Floating Point 30094

Input 30095 Phase A Pos KVARH 32-bit IEEE Floating Point 30096

Input 30097

Phase B Pos KVARH 32-bit IEEE Floating Point 30098

Input 30099 Phase C Pos KVARH 32-bit IEEE Floating Point 30100

Input 30101

Phase A Neg KVARH 32-bit IEEE Floating Point 30102

Input 30103 Phase B Neg KVARH 32-bit IEEE Floating Point 30104

Input 30105

Phase C Neg KVARH 32-bit IEEE Floating Point 30106

Input 30107 Phase A Pos KVAH 32-bit IEEE Floating Point 30108

Input 30109 Phase B Pos KVAH 32-bit IEEE Floating Point 30110

Input 30111 Phase C Pos KVAH 32-bit IEEE Floating Point 30112

Input 30113 Peak Sliding Window KW 32-bit IEEE Floating Point 30114

Input 30115

Frequency 32-bit IEEE Floating Point 30116

Input 30117

Clear Totalizers Year Day Month

Least significant 2 bytes = Year Next significant byte = Day (1 – 31) Next significant byte = Month (1 – 12) 30118


Register Type


Input 30119

Clear Totalizers Time Least significant byte = Minutes (0 – 59) Next significant byte = Hours (0 – 23) Next significant 2 bytes = not used 30120

Input 30121

Peak Window KW Year Day Month


Input 30123

Peak Window KW Time Least significant byte = Minutes (0 – 59) Next significant byte = Hours (0 – 23) Next significant 2 bytes = not used 30124

Input 30125

Clear Peak KW Year Day Month


Input 30127

Clear Peak KW Time Least significant byte = Minutes (0 – 59) Next significant byte = Hours (0 – 23) Next significant 2 bytes = not used 30128

Input 30129

External Pulse Count 1

30130

Input 30131 External Pulse Count 2 30132

Input 30133

External Input 1

30134

Input 30135 External Input 2 30136

Input 30137

Low Volts Alarm

30138

Input 30139 Unbalanced Volts Alarm 30140


Table 10: List of Modbus Holding Registers

Register Type


Holding

40001

Power System Type


40002

Holding 40003 Full Scale Volts Range 120 – 32000 40004

Holding 40005 Full Scale Amps Range 5 – 6000 40006

Holding 40007

CT Type


40008

Holding 40009 ‘A’ Phase Cal Number Range 9500 – 10500 40010

Holding 40011

‘B’ Phase Cal Number Range 9500 – 10500 40012

Holding 40013 ‘C’ Phase Cal Number Range 9500 – 10500 40014

Holding

40015

Volt-Amp Pairing


40016

Holding 40017 CTA Polarity 0 = Normal 1 = Reversed 40018

Holding 40019

CTB Polarity 0 = Normal 1 = Reversed 40020

Holding 40021 CTC Polarity 0 = Normal 1 = Reversed 40022

Holding 40023 KW Sliding Window

Period Range 5 – 60 40024

Holding

40025

Contact 1 Function

0 = Positive KWH pulse 1 = Negative KWH pulse 2 = Low Volts alarm N.O 3 = Low Volts alarm N.C. 4 = Unbalanced Volts alarm N.O. 5 = Unbalanced Volts alarm N.C. 6 = Low OR Unbal Volts alarm N.O. 7 = Low OR Unbal Volts alarm N.C. 8 = Network Control

40026

Holding

40027

Contact 2 Function


40028

Holding 40029 Minimum KWH Pulse

Width Range 50 – 2000, 50 ms increments 40030


Register Type


Holding 40031

KWH Per Pulse


40032

Holding 40033 Low Volts Alarm Threshold Range 0 – 99 (0 = alarm disabled) 40034

Holding 40035 Unbalanced Volts Alarm Threshold Range 0 – 99 (0 = alarm disabled)

40036

Holding

40037

mA Output Function


40038

Holding 40039

Name Tag Part 1

Least significant byte = First ASCII character Next significant byte = Next ASCII character 40040

Holding 40041

Name Tag Part 2


Holding 40043

Name Tag Part 3



Register Type


Holding

40045

Displayed Values 1

Each bit is a flag for that data item to be displayed. Bit = 0 means do not display, bit = 1 means display Total KW (Bit 0) Sliding Window KW (Bit 1) Total KVAR (Bit 2) Total KVA (Bit 3) Phase A KW (Bit 4) Phase B KW (Bit 5) Phase C KW (Bit 6) Phase A KVAR (Bit 7) Phase B KVAR (Bit 8) Phase C KVAR (Bit 9) Phase A KVA (Bit 10) Phase B KVA (Bit 11) Phase C KVA (Bit 12) Total Power Factor (Bit 13) Phase A Power Factor (Bit 14) Phase B Power Factor (Bit 15) Phase C Power Factor (Bit 16) Average LL Volts (Bit 17) Average LN Volts (Bit 18) L1-L2 Volts (Bit 19) L2-L3 Volts (Bit 20) L3-L1 Volts (Bit 21) L1-N Volts (Bit 22) L2-N Volts (Bit 23) L3-N Volts (Bit 24) Average Amps (Bit 25) A Amps (Bit 26) B Amps (Bit 27) C Amps (Bit 28) Total Positive KWH (Bit 29) Total Negative KWH (Bit 30) Total Absolute KWH (Pos + Neg) (Bit 31)

40046


Register Type


Holding

40047

Displayed Values 2

Each bit is a flag for that data item to be displayed. Bit = 0 means do not display, bit = 1 means display Total Net KWH (Pos – Neg) (Bit 0) Total Positive KVARH (Bit 1) Total Negative KVARH (Bit 2) Total KVARH (Pos+Neg) (Bit 3) Net KVARH (Pos-Neg) (Bit 4) Total KVAH (Bit 5) A Positive KWH (Bit 6) B Positive KWH (Bit 7) C Positive KWH (Bit 8) A Negative KWH (Bit 9) B Negative KWH (Bit 10) C Negative KWH (Bit 11) A Positive KVARH (Bit 12) B Positive KVARH (Bit 13) C Positive KVARH (Bit 14) A Negative KVARH (Bit 15) B Negative KVARH (Bit 16) C Negative KVARH (Bit 17) A KVAH (Bit 18) B KVAH (Bit 19) C KVAH (Bit 20) Peak Sliding Window KW (Bit 22) External Input #1 (Bit 23) External Input #2 (Bit 24) Frequency (Bit 27) Name Tag (Bit 31)

40048

Holding 40049

Display Action


40050

Holding 40051

Time Least significant byte = Minutes (0 – 59) Next byte = Hours (0 – 23) 40052

Holding 40053

Year Day Month Least significant 2 bytes = Year Next significant byte = Day (1 – 31) Next significant byte = Month (1 – 12) 40054

Holding 40055

Output Contacts Bit 0 = contact 1 Bit 1 = contact 2 40056

Holding 40057 4-20 mA Output 32-bit IEEE Floating Point 40058

Holding 40059 Aux Input #1 Display

Format 0 = Display as pulse counter 1 = Display as input level 40060

Holding 40061 Aux Input #2 Display Format

0 = Display as pulse counter 1 = Display as input level 40062

Holding 40063

Clear Totalizers Writing any value will clear the totalizers. This value self-resets to 0 after being written. 40064

Holding 40065 Clear Peak Sliding

Window

Writing any value will clear the peak sliding window. This value self-resets to 0 after being written. 40066

Holding 40067 Clear External Input Pulse

Count 1

Writing any value will clear the pulse count. This value self-resets to 0 after being written. 40068


Register Type


Holding 40069 Clear External Input Pulse

Count 2

Writing any value will clear the pulse count. This value self-resets to 0 after being written. 40070


EtherNet/IP The ENG-ETH module supports both explicit and I/O messaging. The I/O messaging is entirely user-configurable and is invoked when the client opens a connection to the interface using assembly instances 100 (O→T direction) and 150 (T→O direction). Some other notes of interest are:

• The ENG-ETH supports the EtherNet/IP protocol, as administered by the Open DeviceNet Vendor Association (ODVA).

• I/O connection sizes for assembly instances 100 and 150 are adjustable between 0 and 128 bytes (32 parameters max @ 4 bytes per parameter = 128 bytes). Because parameters are 32-bit elements, however, connection sizes must be a multiple of 4 bytes.

• The ENG-ETH product type code is 12 (Communication Adapter). • Supports unconnected messages (UCMM), and up to 16 simultaneous class 1 (I/O) or class 3

(explicit) connections. • Refer to


• EtherNet/IP web page for further information on the I/O data configuration arrays. • Class 1 implicit I/O supports both multicast and point-to-point (unicast) when producing data in

the T→O direction. • Point-to-point class 1 connected messages will be produced targeting the IP address of the

device that instantiated the connection, UDP port 0x08AE (UDP port 2222). • If a class 1 point-to-point connection is established in the (T→O) direction, no more class 1

connections can be established. • If a class 1 connection’s consuming half (O→T) times out, then the producing half (T→O) will

also time-out and will stop producing.

EtherNet/IP Point Mapping The following tables provide a list of the endicator data points that are mapped as EtherNet/IP tags. If an invalid tag is requested, an appropriate error message will be transmitted by the ENG-ETH to the network. The tags are accessed using the “CIP Data Table Read” and “CIP Data Table Write” services. Note that all tags are 32-bit values. All tags are integer values, unless otherwise indicated as a 32-bit IEEE Float Point. Floating point tags must be requested separately from integer tags, otherwise the module will respond with an error.

Table 11: List of EtherNet/IP Data TableTags

Tag Name Description Notes

P000 Serial Number

P001 Firmware Version 32-bit IEEE Floating Point

P002 Auto/Manual Wiring Configuration

0 = Volt-amp matching and CT polarities were manually configured. 1 = Volt-amp matching and CT polarities were auto-configured.

P003 Total KW 32-bit IEEE Floating Point

P004 Sliding Window KW 32-bit IEEE Floating Point

P005 Total KVAR 32-bit IEEE Floating Point

P006 Total KVA 32-bit IEEE Floating Point

P007 Phase A KW 32-bit IEEE Floating Point

P008 Phase B KW 32-bit IEEE Floating Point

P009 Phase C KW 32-bit IEEE Floating Point

P010 Phase A KVAR 32-bit IEEE Floating Point

P011 Phase B KVAR 32-bit IEEE Floating Point

P012 Phase C KVAR 32-bit IEEE Floating Point

P013 Phase A KVA 32-bit IEEE Floating Point

P014 Phase B KVA 32-bit IEEE Floating Point

P015 Phase C KVA 32-bit IEEE Floating Point



P016 Total Power Factor 32-bit IEEE Floating Point

P017 Phase A Power Factor 32-bit IEEE Floating Point

P018 Phase B Power Factor 32-bit IEEE Floating Point

P019 Phase C Power Factor 32-bit IEEE Floating Point

P020 Average LL Volts 32-bit IEEE Floating Point

P021 Average LN Volts 32-bit IEEE Floating Point

P022 L1-L2 Volts 32-bit IEEE Floating Point



P025 L1-N Volts 32-bit IEEE Floating Point



P028 Average Amps 32-bit IEEE Floating Point

P029 Phase A Amps 32-bit IEEE Floating Point

P030 Phase B Amps 32-bit IEEE Floating Point

P031 Phase C Amps 32-bit IEEE Floating Point

P032 Total Pos KWH 32-bit IEEE Floating Point

P033 Total Neg KWH 32-bit IEEE Floating Point

P034 Total Abs KWH 32-bit IEEE Floating Point

P035 Total Net KWH 32-bit IEEE Floating Point

P036 Total Pos KVARH 32-bit IEEE Floating Point

P037 Total Neg KVARH 32-bit IEEE Floating Point

P038 Total Abs KVARH 32-bit IEEE Floating Point

P039 Total Net KVARH 32-bit IEEE Floating Point

P040 Total KVAH 32-bit IEEE Floating Point

P041 Phase A Pos KWH 32-bit IEEE Floating Point

P042 Phase B Pos KWH 32-bit IEEE Floating Point



P043 Phase C Pos KWH 32-bit IEEE Floating Point

P044 Phase A Neg KWH 32-bit IEEE Floating Point

P045 Phase B Neg KWH 32-bit IEEE Floating Point

P046 Phase C Neg KWH 32-bit IEEE Floating Point

P047 Phase A Pos KVARH 32-bit IEEE Floating Point

P048 Phase B Pos KVARH 32-bit IEEE Floating Point

P049 Phase C Pos KVARH 32-bit IEEE Floating Point

P050 Phase A Neg KVARH 32-bit IEEE Floating Point

P051 Phase B Neg KVARH 32-bit IEEE Floating Point

P052 Phase C Neg KVARH 32-bit IEEE Floating Point

P053 Phase A Pos KVAH 32-bit IEEE Floating Point

P054 Phase B Pos KVAH 32-bit IEEE Floating Point

P055 Phase C Pos KVAH 32-bit IEEE Floating Point

P056 Peak Sliding Window KW 32-bit IEEE Floating Point

P057 Frequency 32-bit IEEE Floating Point

P058 Clear Totalizers Year Day Month

Least significant 2 bytes = Year Next significant byte = Day (1 – 31) Next significant byte = Month (1 – 12)

P059 Clear Totalizers Time Least significant byte = Minutes (0 – 59) Next significant byte = Hours (0 – 23) Next significant 2 bytes = not used

P060 Peak Window KW Year Day Month


P061 Peak Window KW Time Least significant byte = Minutes (0 – 59) Next significant byte = Hours (0 – 23) Next significant 2 bytes = not used

P062 Clear Peak KW Year Day Month


P063 Clear Peak KW Time Least significant byte = Minutes (0 – 59) Next significant byte = Hours (0 – 23) Next significant 2 bytes = not used

P064 External Pulse Count 1

P065 External Pulse Count 1



P066 External Input 1

P067 External Input 2

P068 Low Volts Alarm

P069 Unbalanced Volts Alarm

P070 Power System Type


P071 Full Scale Volts Range 120 – 32000

P072 Full Scale Amps Range 5 – 6000

P073 CT Type


P074 ‘A’ Phase Cal Number Range 9500 – 10500

P075 ‘B’ Phase Cal Number Range 9500 – 10500

P076 ‘C’ Phase Cal Number Range 9500 – 10500

P077 Volt-Amp Pairing


P078 CTA Polarity 0 = Normal 1 = Reversed

P079 CTB Polarity 0 = Normal 1 = Reversed

P080 CTC Polarity 0 = Normal 1 = Reversed

P081 KW Sliding Window Period Range 5 – 60

P082 Contact 1 Function




P083 Contact 2 Function


P084 Minimum KWH Pulse Width Range 50 – 2000, 50 ms increments

P085 KWH Per Pulse


P086 Low Volts Alarm Threshold Range 0 – 99 (0 = alarm disabled)

P087 Unbalanced Volts Alarm Threshold Range 0 – 99 (0 = alarm disabled)

P088 mA Output Function


P089 Name Tag Part 1 Least significant byte = First ASCII character Next significant byte = Next ASCII character





P092 Displayed Values 1

Each bit is a flag for that data item to be displayed. Bit = 0 means do not display, bit = 1 means display Total KW (Bit 0) Sliding Window KW (Bit 1) Total KVAR (Bit 2) Total KVA (Bit 3) Phase A KW (Bit 4) Phase B KW (Bit 5) Phase C KW (Bit 6) Phase A KVAR (Bit 7) Phase B KVAR (Bit 8) Phase C KVAR (Bit 9) Phase A KVA (Bit 10) Phase B KVA (Bit 11) Phase C KVA (Bit 12) Total Power Factor (Bit 13) Phase A Power Factor (Bit 14) Phase B Power Factor (Bit 15) Phase C Power Factor (Bit 16) Average LL Volts (Bit 17) Average LN Volts (Bit 18) L1-L2 Volts (Bit 19) L2-L3 Volts (Bit 20) L3-L1 Volts (Bit 21) L1-N Volts (Bit 22) L2-N Volts (Bit 23) L3-N Volts (Bit 24) Average Amps (Bit 25) A Amps (Bit 26) B Amps (Bit 27) C Amps (Bit 28) Total Positive KWH (Bit 29) Total Negative KWH (Bit 30) Total Absolute KWH (Pos + Neg) (Bit 31)



P093 Displayed Values 2

Each bit is a flag for that data item to be displayed. Bit = 0 means do not display, bit = 1 means display Total Net KWH (Pos – Neg) (Bit 0) Total Positive KVARH (Bit 1) Total Negative KVARH (Bit 2) Total KVARH (Pos+Neg) (Bit 3) Net KVARH (Pos-Neg) (Bit 4) Total KVAH (Bit 5) A Positive KWH (Bit 6) B Positive KWH (Bit 7) C Positive KWH (Bit 8) A Negative KWH (Bit 9) B Negative KWH (Bit 10) C Negative KWH (Bit 11) A Positive KVARH (Bit 12) B Positive KVARH (Bit 13) C Positive KVARH (Bit 14) A Negative KVARH (Bit 15) B Negative KVARH (Bit 16) C Negative KVARH (Bit 17) A KVAH (Bit 18) B KVAH (Bit 19) C KVAH (Bit 20) Peak Sliding Window KW (Bit 22) External Input #1 (Bit 23) External Input #2 (Bit 24) Frequency (Bit 27) Name Tag (Bit 31)

P094 Display Action


P095 Time Least significant byte = Minutes (0 – 59) Next byte = Hours (0 – 23)

P096 Year Day Month Least significant 2 bytes = Year Next significant byte = Day (1 – 31) Next significant byte = Month (1 – 12)

P097 Output Contacts Bit 0 = contact 1 Bit 1 = contact 2

P098 4-20 mA Output 32-bit IEEE Floating Point

P099 Aux Input #1 Display Format

0 = Display as pulse counter 1 = Display as input level

P100 Aux Input #2 Display Format

0 = Display as pulse counter 1 = Display as input level

P101 Clear Totalizers Writing any value will clear the totalizers. This value self-resets to 0 after being written.

P102 Clear Peak Sliding Window

Writing any value will clear the peak sliding window. This value self-resets to 0 after being written.

P103 Clear External Input Pulse Count 1


P104 Clear External Input Pulse Count 2



Kele Finder Application The Kele Finder application is a Microsoft Windows® -based PC program which provides several configuration and maintenance utilities for the ENG-ETH, such as Ethernet-based discovery and USB-based firmware updating. The application discovers all ENG-ETH modules on the current Ethernet subnet, regardless of whether or not their network parameters are currently compatible with the subnet upon which they reside. The Kele Finder program is not required to install an ENG-ETH module on the network. Setting the proper network parameters through the keypad/LCD or Desktop Software is sufficient to get the ENG-ETH up and running. The Kele Finder program is required if it is ever desired to upgrade the ENG-ETH operating firmware.

Installation The Kele Finder setup will install all required files and USB device drivers. Note that the Kele Finder program must be installed before connecting any ENG-ETH devices to the computer’s USB port, as the program contains product-specific USB drivers that must be installed on the computer prior to initial connection of the target device. If you are prompted by the operating system that it can’t verify the publisher of this driver software, choose “Install this driver software anyway”. After the Kele Finder application is installed, the PC will be able to automatically install the appropriate USB driver when an ENG-ETH module is connected via USB. Note that the Kele Finder application must be installed prior to connecting an ENG-ETH module to the PC: the PC will not be able to automatically install the USB driver until the Kele Finder installation is complete By using a USB mini-B cable, an ENG-ETH can be connected to the PC and updated. The ENG-ETH is a USB composite device (which is to say that it presents multiple virtual representations to the computer), so Windows will additionally identify the device as a USB mass storage device (also known as a “flash drive” or “removable disk”), and automatically install the default Windows USB mass storage device drivers. Once this is completed, the operating system may automatically pop up a Windows Explorer window showing the file contents of the ENG-ETH’s on-board file system. This window can be closed at this time if desired.

Ethernet Tab All devices discovered on the current Ethernet subnet can be organized in ascending or descending order by clicking on the desired sort header (Product, IP Address, MAC Address or Application Firmware). The buttons on the left side of the window perform the following actions: Open Web: Opens a web browser page of the selected device. Refer to the


Web Server section. Reboot Device: Reboots the currently-selected ENG-ETH module. The Finder application will then automatically rescan the network. Refresh List: Causes the Finder application to rescan the network. Note that in order for the Finder application to discover devices on the Ethernet subnet, certain UDP traffic must be allowed in and out of the computer, and firewall applications (such as Windows Firewall) are often configured to block such traffic by default. If the Finder is unable to discover any devices on the current subnet, be sure to check the computer’s firewall settings during troubleshooting, and add an exception to the firewall configuration if necessary. The Finder application uses UDP port 4334.

USB Tab All devices connected to the computer via USB can be organized in ascending or descending order by clicking on the desired sort header (Product, Manufacturer or Application Firmware). The buttons on the left side of the window perform the following actions: Device Info: Provides general device info. Update Firmware: Update the firmware. Refer to the Firmware Update section. View Files: Provides access to the on-board filesystem with Windows Explorer. Refer to File System section. Reboot Device: Reboots the ENG-ETH. The Finder will automatically detect the ENG-ETH once it has completed rebooting.


Web Server The ENG-ETH contains a web server which allows users to access the meter’s internal data in a graphical manner with web browsers such as Microsoft Internet Explorer or Mozilla Firefox. Meter configuration via the web server is limited to only the Email Alerts details and the Ethernet/IP I/O Messaging. In order to view the ENG-ETH web pages, the free Adobe Flash Player browser plug-in is required. The plug-in can be downloaded directly from http://www.adobe.com. Always ensure that you have the latest version of the Flash Player installed: if some aspect of the web page does not appear to be displayed properly, installing the latest Flash Player update usually resolves the problem. In order to access the web server, destination TCP ports 80 and 843 must be accessible from the client computer. Port 80 is the standard port used to serve up http web pages, this port should be open on all web-capable PCs. Port 843 is a “well-known port number” associated with Adobe Flash, most computers should allow access to this port without manual opening required. To access the web server, either use the finder application (refer to Kele Finder Application) and select the “Open Web” button when the target unit is highlighted, or just directly enter the target unit’s IP address into the address (URL) field of your web browser. Figure 1 shows the opening screen of the web server:

Figure 1: Web Server Opening Screen The introductory web page attempts to open a separate “data channel” to access the real-time meter data. If the data channel is established, you will see the word “Success” on the lower right and the web server will transition to the Monitor page.


If the data channel cannot be established, the introductory web page will remain visible (no transition to Monitor page) and the word “Success” will not appear. The ENG-ETH web site only supports one client at a time. If the data channel cannot be established, the ENG-ETH may be in use by another client, try again in a few minutes. The web interface is subdivided into several different pages as indicated by a row of buttons at the top: Monitor Configure Email Alerts Dashboard Ethernet/IP To change to the desired page, just click the corresponding button.

Monitor Page Figure 2 shows the Monitor page:

Figure 2: Monitor Page The Monitor page displays all the meter measurements plus some other information such as Name Tag. The information is updated every few seconds as indicated by the green “Updating Data” square that blinks on and off. If the green Updating Data square stays off for more than a few seconds, you may need to press the browser’s Refresh button to re-establish communications with the meter.


Configure Page The Configure page allows viewing of the meter’s present configuration. Refer to Figure 3:

Figure 3: Configure Page All items on the Configure page are read-only; they cannot be changed from the website. To change the meter configuration, use the endicator keypad/LCD or Desktop Software. The meter configuration may also be changed via BACnet/IP or Modbus/TCP if the “configure over network” option is enabled. Information updating is indicated by the green “Updating Data” square that blinks on and off. If the green Updating Data square stays off for more than a few seconds, you may need to press the browser’s Refresh button to re-establish communications with the meter.


Login Page Some pages (Email Alerts, Dashboard Gauge Setup, Ethernet/IP Configure) cannot be accessed until the client logs in with the correct User Name and Password. Trying to access any of these pages will first bring up the Login page as shown in Figure 4:

Figure 4: Login Page The ENG-ETH ships from Kele with the Username = endicator and Password = 1234. You may change this by filling in the lower set of fields with a new Username and Password of your choice. NOTE: the website Username and Password are independent of the Password used to unlock the front panel keypad/LCD and Desktop Software. If the Username and Password are lost, the ENG-ETH supports a “back door” Username and Password that are derived from the meter’s unique serial number. Call Kele technical support for the website’s “back door” Username and Password. You will have to give tech support the meter serial number (found in the Monitor page data). Following a successful log in, you will automatically be taken to the page requested.


Email Alerts Page The ENG-ETH is capable of sending up to 10 unique email alert messages to as many as 4 different recipients. The parameters available to be monitored for email alerts are: Average System Line-Line Volts Average System Amps Total System Power Factor Sliding Window KW Demand Instantaneous KW Demand Shown in Figure 5 is the Email Alerts page:

Figure 5: Email Alerts Page Please note that you must enter the Domain Name Server (DNS) address(es) into endicator via the keypad/LCD or Desktop Software. A DNS server is needed to resolve the recipient email addresses and possibly the mail server address if it is entered as a name. Email connection information is entered in the lower section of the Email Alerts page. If your mail server requires user authentication, the mail server User name and Password must be entered also. The “From” text can be any descriptive text, note in the example “endicator@Warehouse2” is not an actual email address, just an informative description of where the email originated. The upper section of the Email Alerts page is where you set up the trigger information which will cause an email alert to be sent. You can specify a “guard band” time for which the condition has to remain true before the email is sent. This can prevent spurious email alerts for transient conditions. You can also specify whether you want email repeats to be sent out if the condition remains true for a length of time.


The center section of the Email Alerts page is where you define the email subject line for each alert and where you enable and disable alerts with the checkboxes. Disabling an email alert does not destroy any of the setup information, the alert is simply disabled until turned back on via the checkbox. Since there are 10 email alerts available, you may want to set them up as pairs so that one reports a going-into-trouble condition and the other reports a return-to-normal condition. This was done in the example screenshot. The threshold values were set with a “deadband” between them to prevent a monitored value hovering around the threshold from sending repeated alarm-normal-alarm-normal messages. After altering email alert setup information, click the “Save Settings” button to permanently store the new settings in the ENG-ETH file system. This will take several seconds as the ENG-ETH must reboot itself for the new settings to take effect. NOTE: if you navigate away from the email alerts page before clicking on “Save Settings,” any new settings will be lost! When you navigate back to the email alerts page, the fields will be filled in with the existing settings stored in the ENG-ETH.


Dashboard Page The Monitor page provides measurement values for every possible parameter monitored by endicator, but frequently only a few overall system parameters are of interest. The Dashboard page provides a quick at-a-glance overview of important power system parameters via simulated mechanical gauges with red-yellow-green color scales:

Figure 6: Dashboard Page The data on the gauges is automatically updated at frequent intervals as indicated by the flashing green “Updating Data” square. If the Updating Data square should stop flashing for several seconds, you may need to click the browser’s Refresh button to re-establish connection to the meter. Each gauge may have its scale numbers and color bands customized by clicking on the “Configure Gauges” button which will take you to the gauge setup page (if you have not logged in yet, you will be taken to the Login page first):


Figure 7: Dashboard Gauge Setup Page Note that if you don’t want color status indicators on one or more gauges, the color bands can be turned off simply by unchecking the “Show Color Status On Screen” box for that gauge. When you have made the desired gauge settings, click the “Save Gauge Settings” button to permanently store the new settings in the ENG-ETH file system. NOTE: if you navigate away from the gauge setup page before clicking on “Save Gauge Settings,” any new settings will be lost! When you navigate back to the gauge setup page, the fields will be filled in with the existing settings stored in the ENG-ETH.


EtherNet/IP Page The EtherNet/IP page provides setup for the I/O Messaging feature of the Ethernet/IP protocol. Refer to Figure 3:

Figure 3: EtherNet/IP Page The ENG-ETH supports EtherNet/IP class 1 (I/O) data transfer. The I/O data is entirely user-configurable, and is utilized when the client opens a connection to the interface using assembly instances 100 (O->T direction) and 150 (T->O direction). The user-configurable data arrays consist of two separate elements. The “Consumed Data (to ENG-ETH)” defines the structure of the command data sent from the EtherNet/IP controller to the meter (O->T direction), and the “Produced Data (from ENG-ETH)” defines the structure of the status data sent from the meter back to the controller (T->O direction). These arrays allow the creation of custom-built I/O data. Up to 32 command parameters can be sent to the meter, and up to 32 status parameters can be sent back to the controller. The parameter array locations are numbered 1-32. Clicking on a box in an array allows the user to enter a parameter (P000-P104) that will be referenced at that location when data is either consumed from the controller or produced to the network. A blank value indicates that no parameter is referenced at that location, which will cause the corresponding consumed data to be ignored and produced data to be a default value of 0. Refer to the Ethernet/IP Point Mapping section earlier in this document for the definition of the P000-P104 parameters. Please note that meter measurement values and other values such as the meter serial number are read-only and will not function as Consumed Data items.


When you have made the desired settings, click the “Save Ethernet/IP Settings” button to permanently store the new settings in the ENG-ETH file system. This will take several seconds as the ENG-ETH must reboot itself for the new settings to take effect. NOTE: if you navigate away from the setup page before clicking on “Save Ethernet/IP Settings,” any new settings will be lost! When you navigate back to the setup page, the fields will be filled in with the existing settings stored in the ENG-ETH.

File System The ENG-ETH on-board file system is used to store files for use by the application firmware. Interacting with the file system is performed via USB (using a mini-B USB cable), the ENG-ETH looks like a standard USB mass storage device “flash drive”. Users can interact with the files on the ENG-ETH file system in the same manner as though they were traditional files stored on a PC.

Windows Explorer To use Microsoft Windows Explorer, first open either “Windows Explorer” or “My Computer”. Note that the indicated procedure, prompts and capabilities outlined here can vary depending on such factors as the installed operating system and service packs. The ENG-ETH will typically be displayed as a removable medium such as a Removable Disk. Refer to Figure 9.

Figure 9: Removable Disk with Windows Explorer Windows Explorer will then display the file system’s contents (refer to Figure 10). You can now perform normal file manipulation actions on the available files and folders (cut, copy, paste, open, rename, drag-and-drop transfers etc.) in the same manner as though you were manipulating any traditional file and folder stored on your computer’s hard drive.

Figure 10: File Access via Windows Explorer


Custom Web Servers The ENG-ETH web server resides in the file system and can be updated in the field via the USB port by dropping new files into the WEB and CFG folders. If the standard ENG-ETH web server does not serve a particular customer’s needs, Kele may be able to provide customized web server files.

Firmware Update The ENG-ETH embedded firmware can be updated in the field. Firmware updates may be released for a variety of reasons, such as custom firmware implementations, firmware improvements and added functionality as a result of user requests. Additionally, it may be necessary to load different firmware onto the unit in order to support various protocols. Besides the new firmware file, firmware updates require the Kele Finder and a USB connection (refer to the Kele Finder Application section). To update the firmware, complete the following steps:

1. Navigate to the USB tab of Kele Finder and click the Update Firmware button.

2. Locate the firmware file and click Open.

3. Allow the update procedure to complete.

Some notes on uploading new firmware:

• Please be sure to read the firmware release notes and updated user’s manual for any important notices, behavior precautions or configuration requirements prior to updating your firmware. For example, upgrading to a new firmware version may affect user-defined configuration files: prior to starting an update procedure always back up your configuration file to a PC for later recovery if necessary.

• The firmware cannot be downloaded from the ENG-ETH because it does not reside in the unit’s file system like configuration files do.

• When the firmware update procedure is initiated, normal operation of the ENG-ETH is disabled. After the process has been completed (typically requiring 30-40 seconds), the unit will reset automatically. When the unit boots up again, it will be running the new application firmware, which can be confirmed by observing the version displayed in the Kele Finder (refer to the Kele Finder Application section).

• Firmware updates do not update the web server. The web server must be updated independently by dropping new web server files into the WEB and CFG folders.

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