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TM
ser’s Guide
U
Shop online
at
omega.com
e-mail: info@omega.com
For latest product
manuals:
www.omega.com/en-
us/pdf-manuals
iServer 2 Series
Virtual Chart Recorder and Webserver
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The information contained in this document is believed to be correct, but OMEGA accepts no liability for any errors it contains and
reserves the right to alter specifications without notice.
omega.com info@omega.com
Omega Engineering, Inc:
800 Connecticut Ave. Suite 5N01, Norwalk, CT 06854, USA
Toll-Free: 1-800-826-6342 (USA & Canada only)
Customer Service: 1-800-622-2378 (USA & Canada only)
Engineering Service: 1-800-872-9436 (USA & Canada only)
Tel: (203) 359-1660
e-mail: info@omega.com
Fax: (203) 359-7700
Omega Engineering,
Limited:
1 Omega Drive, Northbank,
Irlam Manchester M44 5BD
United Kingdom
Omega Engineering,
GmbH:
Daimlerstrasse 26 75392
Deckenpfronn Germany
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Table of Contents
1 Notes, Cautions, and Warnings ................................................................................................................ 3
1.1 Security and Public Data Access (Port Forwarding) ........................................................................................ 3
2 Introduction .................................................................................................................................................. 4
3 Hardware Setup ........................................................................................................................................... 5
3.1 Wall Mounting and DIN Rail Assembly ................................................................................................................ 5
3.2 Smart Probe Bracket Assembly .............................................................................................................................. 6
4 Sensing Device Setup ................................................................................................................................ 7
4.1 M12 Omega Link Smart Probe Connection ........................................................................................................ 7
4.1.1 Smart Probe SYNC Configuration .................................................................................................................. 8
4.2 Thermocouple Connection ...................................................................................................................................... 9
4.3 Digital I/O and Relays .............................................................................................................................................. 10
4.4 Powering the iServer 2 ............................................................................................................................................ 11
4.4.1 LED Status Indicator ......................................................................................................................................... 11
4.4.2 9-Volt Backup Battery ...................................................................................................................................... 12
4.4.3 Power Over Ethernet (PoE) ............................................................................................................................ 12
5 Connecting to your PC ............................................................................................................................ 13
5.1 Method 1 – DHCP Router Setup (Display Models only) ................................................................................. 13
5.2 Method 2 – Direct to PC Setup with an RJ45 Ethernet Cable (Display and Non-Display Models) .. 13
5.3 Method 3 – Direct to PC Setup – Micro USB 2.0 (Display and Non-Display Models) ........................... 14
6 Navigating the iServer 2 Web UI .......................................................................................................... 16
6.1 Device Name and Sensor Firmware Information ............................................................................................ 16
6.1.1 Configuring Device Name (Configure) ...................................................................................................... 16
6.1.2 Omega Link Smart Probe Firmware Download and Update (Information) .................................... 17
6.2 Network ........................................................................................................................................................................ 21
6.2.1 Network Configuration .................................................................................................................................... 21
6.3 Logging ........................................................................................................................................................................ 22
6.3.1 Clear Log Data When Switching Smart Probe Types (Smart Probe Models Only) ...................... 22
6.4 How to Retrieve Logged Data ............................................................................................................................... 23
6.5 Events and Notifications Configuration ............................................................................................................. 23
6.5.1 Buzzer ................................................................................................................................................................... 24
6.5.2 Relay 1 and Relay 2 .......................................................................................................................................... 25
6.5.3 Email ..................................................................................................................................................................... 26
6.5.4 Digital I/O ............................................................................................................................................................ 27
6.6 System Configuration .............................................................................................................................................. 28
6.6.1 System .................................................................................................................................................................. 28
6.6.2 Profile .................................................................................................................................................................... 29
6.6.3 Units ...................................................................................................................................................................... 29
6.7 Channel Settings ....................................................................................................................................................... 30
6.7.1 Gain and Offset .................................................................................................................................................. 30
6.7.2 Alarm Trigger ...................................................................................................................................................... 30
6.7.3 Thermocouple Configuration Interface (TC Models Only) ................................................................... 31
6.8 Gauge / Chart Web UI View .................................................................................................................................. 32
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7 Adding an iServer 2 to Omega Enterprise Gateway (OEG) ............................................................ 33
7.1 Method 1: DHCP Router Method ........................................................................................................................... 33
7.2 Method 2: Static IP (Direct to PC) Method ......................................................................................................... 34
7.3 Configuring Sensing Devices after Pairing with OEG ................................................................................... 37
8 iServer2 Modbus Holding Register Partition ...................................................................................... 38
8.1 Holding Registers Partition .................................................................................................................................... 38
8.2 Channel Value Registers ........................................................................................................................................ 38
8.3 Device Meta Modbus Registers ............................................................................................................................ 39
8.4 Device Configuration and Channel Configuration Registers ...................................................................... 40
9 Appendix A: Troubleshooting ................................................................................................................ 44
10 iServer 2 Specifications ...................................................................................................................... 45
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1 Notes, Cautions, and Warnings
If the equipment is used in a manner not specified in this manual, the protection by the equipment
may be impaired.
Do not operate the equipment in flammable or explosive environments.
It is important to read and follow all precautions and instructions in this manual before operating or
commissioning this device as it contains important information relating to safety and EMC. Failure to
follow all the safety precautions may result in injury and/or damage to the equipment.
The following labels identify information that is especially important to note:
Note:
Caution or Warning:
Caution, Warning, or Important:
Provides information that is important to successfully set up and use the iServer 2.
Informs about the risk of electrical shock.
Informs of circumstances that can affect the functionality of the
instruments and must refer to accompanying documents.
1.1 Security and Public Data Access (Port Forwarding)
The iServer 2 is designed to be used in a secure, local-area network (LAN) using a private address.
Exposing the device to public Internet traffic through Port Forwarding or similar methods may lead
to significant security risks to the user’s network and data. OMEGA Engineering cautions users
against exposing the iServer 2 to public access through Port Forwarding.
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2 Introduction
Model No.
Model Name
Sensor Type
Description
iS2-THB-B
iServer 2 –
Basic
Smart Probe
Virtual chart recorder and webserver with M12
Smart Probe compatibility, 1x USB port
iS2-THB-ST
iServer 2 –
Standard
Smart Probe
Virtual chart recorder and webserver with M12
Smart Probe compatibility, 4.3" LCD, 1x USB
Port, Digital I/O and Relays
iS2-THB-DP
iServer 2 –
Deluxe Probe
Smart Probe
Virtual chart recorder and webserver with M12
Smart Probe compatibility, 4.3" LCD, 1x USB
Port, Digital I/O and Relays, Power over Ethernet
iS2-THB-DTC
iServer 2 –
Deluxe
Thermocouple
Thermocouple
Virtual chart recorder and webserver with 2x
Thermocouple ports, 4.3" LCD, 1x USB Port,
Digital I/O and Relays, Power over Ethernet
The iServer 2 virtual chart recorder and webserver offers an intuitive way to collect and display live
sensor readings through a web-based user interface or by integrating the device into an existing
Omega Link Cloud account. An iServer 2 unit will accept either an Omega Link Smart Probe or two
thermocouples, depending on the model purchased.
The iS2-THB-ST, iS2-THB-DP, and iS2-THB-DTC feature 2 configurable digital I/O and relay ports.
These can be used for a myriad of applications including driving relays or physical alarms. The iServer
2 can also be utilized as an edge controller, with autonomous independent decision-making
capabilities to generate local alarms or provide control outputs based on sensor inputs. A fully
configurable alarm system is available in the web UI to create events and thresholds that will trigger a
notification should those conditions be met. A modern notification system allows users to be notified
via email or text. Omega Link compatible devices, such as the iServer 2, can be added to an existing
Omega Link Ecosystem to provide data anytime, anywhere, by first adding the iServer 2 device to an
Omega Enterprise Gateway account and then adding that account to the Omega Link Cloud.
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3 Hardware Setup
DIN rail
bracket
Wall-mount
screw hole
Wall-mount
screw hole
Reset button
The iServer 2 can be assembled to be mounted in a variety of ways. Refer to the following sections for
instructions on how to assemble the hardware for different applications. The physical reset button is
located on the left side of the iServer 2 unit as shown in the figure below.
3.1 Wall Mounting and DIN Rail Assembly
All models of the iServer 2 are wall-mountable and come with an optional DIN rail bracket. The
distance between the two wall-mounting screw holes is 2 ¾” (69.85 mm). To attach the DIN rail
bracket hardware, locate the two screw holes on the underside of the unit and use the two
included screws to secure the bracket in place as indicated in the figure below:
Figure 1: DIN Rail Bracket and wall mount screw holes!
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3.2 Smart Probe Bracket Assembly
Standoff
Extenders
Smart Probe
Bracket
The iS2-THB-B, iS2-THB-ST, and iS2-THB-DP come with a Smart Probe Bracket and stand-off
extenders to mount the Omega Link Smart Probe 1 ½” away from the unit.
Step 1:
Locate the two screw holes on the left side of the unit and screw in the standoff extenders.
Note:
For accurate sensor readings, the standoff extenders are highly recommended.
Step 2:
Align the screw holes of the smart probe bracket with the standoff extenders and use the
two included screws to secure the bracket in place as indicated in the figure below.
Note:
Ensure the wider end of the bracket opening is pointing upwards.
Figure 2: iServer 2 unit with standoff extenders and smart probe bracket attached
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4 Sensing Device Setup
Pin
Description
Pin 1
I2C-2_SCL
Pin 2
Interrupt Signal
Pin 3
I2C-1_SCL
Pin 4
I2C-1_SDA
Pin 5
Shield Ground
Pin 6
I2C-2_SDA
Pin 7
Power Ground
Pin 8
Power Supply
The sensing device setup will vary for the smart probe and thermocouple variants of the iServer 2.
M12 Omega Link Smart Probes Models
• iS2-THB-B
• iS2-THB-ST
• iS2-THB-DP
Thermocouple Model
• iS2-THB-DTC
Refer to either the section titled
complete the sensing device setup.
4.1 M12 Omega Link Smart Probe Connection
The iS2-THB-B, iS2-THB-ST, and iS2-THB-DP can accept an Omega Link Smart Probe through an
M12 connector. Begin by plugging in the Smart Probe either directly to the iServer 2 unit or with a
compatible M12 8-pin extension cable.
4.1 M12 Omega Link Smart Probe or 4.2 Thermocouple Connection
to
Figure 4: M12 8-Pin female
connector iServer 2 front view
Important:
It is recommended that users access the digital I/O provided by the iServer 2
instead of the connected
may cause device operation errors. See the following section titled
and Relays
Figure 3: iServer 2 unit with M12 Smart Probe Connector
Smart Probe
. Using the digital I/O of the
.
Smart Probe
4.3 Digital I/O
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4.1.1 Smart Probe SYNC Configuration
Omega Link Smart Probes can be configured using Omega’s free SYNC configuration
software when connected to a Windows PC using an Omega Link Smart Interface such as the
wired IF-001 or wireless IF-006. When the Omega Link Smart Probe and Smart Interface are
connected to a Windows PC running SYNC, users may click the Refresh button on the
SYNC interface to auto-detect the connected Smart Probe. Once the device has been
detected, the user will be presented with the available configuration options.
4.1.1.1 Important Smart Probe Digital I/O Configuration
To ensure proper operation between the iServer 2 and connected Omega Link Smart
Probe, Smart Probes that offer Digital I/O (DIO) must have the Digital I/O set to
Low
at the Smart Probe level. Setting the Omega Link Smart Probe Digital I/O to Active
Low can be completed using one of the first two methods listed below:
Method 1:
changed the Digital I/O settings, there is no change needed. If the Digital I/O has been
changed, a factory reset can be used to set the Digital I/O back to the default Active Low.
Method 2:
the connected Smart Probe and manually change the Digital I/O of the Smart Probe to
Active Low as shown below.
The factory default setting to the Digital I/O is Active Low. If the user has not
Using SYNC configuration software, the user may navigate to the
Active
Inputs
tab of
Figure 5: SYNC Configuration of Smart Probe Digital I/O
Method 3:
Using SYNC Configuration software, the user may navigate to the
dropdown associated with the Smart Probe and select a
Type
that does not include
Type
DIO
as shown below.
Figure 6: SYNC Configuration Smart Probe Type Excludes DIO
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Important:
If the user proceeds with a method that requires the DIO to be manually changed in the
SYNC Inputs tab (Method 2 and Method 3), the user must also ensure the DIO settings in
the Output tab to be set to Active Low for BOTH Outputs. A Factory Reset also sets the
Output DIO to Active Low by default.
Figure 7: SYNC Configuration Smart Probe Output set to Active Low
4.2 Thermocouple Connection
The iS2-THB-DTC can accept up to two thermocouples. Refer to the thermocouple connector
diagram below to properly connect your thermocouple sensor to the iServer 2 unit.
Important:
Figure 8: iServer 2 unit with Thermocouple connectors
Currently there is Cold Junction Calibration menu available for B-type thermocouples.
To compensate for the B-type thermocouple wire error, users may configure the Offset
(b) and Gain (m) available in the sensor channel settings menu. Refer to section
Gain and Offset
for more information.
6.7.1
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4.3 Digital I/O and Relays
Figure 9: iServer 2 Digital I/O and
Relays terminal block
Use the provided terminal block connectors and the connector
diagram in
DI
The
The DO connections (
can support up to 0.5 amps at 60 V DC.
Relays (R2, R1
The
Figure 5
connections (
) can support a load of up to 1 amp at 30 V DC.
to wire Digital I/O and Relays to the iServer 2.
DI2+, DI2-, DI1+, DI1-
DO+, DO-
) require an external voltage and
) accept a 5 V (TTL) input.
Important:
When wiring the included terminal block
connectors to access the digital I/O, alarms, or
relays, it is recommended that users ground the unit
by connecting a wire to the chassis ground of the
connectors shown in Figure 9.
Below is an example of an LED Circuit connected to the Digital Inputs and outputs.
Figure 10: iServer 2 sample LED circuit with digital input and output
Further configuration regarding Normally Open/Normally Closed Initial State or Triggers can be
completed in the iServer 2 web UI. For more information, refer to sections
6.5.4 Digital I/O
or
6.5.2 Relay 1 and Relay 2
.
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4.4 Powering the iServer 2
LED Color
Status
Description
OFF
No Power
No power applied.
Red
(Blinking)
System Boot
System rebooting.
Red
(Solid)
Factory Reset
Press and hold the reset button for 10
seconds to reset the iServer 2 to factory
default.
WARNING:
The factory reset will reset all
stored data and configuration.
Green
(Solid)
Internet Connection
Detected
iServer 2 is connected to the Internet.
Green
(Blinking)
Firmware Updating
Firmware update in progress.
WARNING:
Do not unplug power while
update is in progress.
Amber
(Solid)
No Internet Connection
Detected
iServer 2 is not connected to the Internet.
All iServer 2 variants come with a DC power supply, international power supply adapters, and a 9 V
battery. Models that offer Power over Ethernet can be powered with a network switch that supports
PoE or a PoE injector (sold separately). Once the device is powered on, fully booted up, and the
appropriate sensor is connected, readings will appear on the display. To power the iServer 2 using
the DC power supply, plug in the power supply to the DC 12 V port located on the iServer 2. For
instructions on how to power the iServer 2 through the Power over Ethernet feature, refer to section
4.4.3 Power Over Ethernet.
4.4.1 LED Status Indicator
Refer to the following LED Status Indicator table to identify the different iServer 2 behaviors
and statuses.
Figure 11: LED Status Indicator
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4.4.2 9-Volt Backup Battery
Screw 2
Screw 1
Battery
Compartment
To access the 9 V battery compartment, remove the two screws indicated in the figure below
and gently pry open the battery compartment.
Insert the 9-volt battery and secure the screws again. The battery will serve as a backup
power source in case of a power outage. A fully charged 9-volt battery will allow the iServer 2
to continue logging up to 10,000 data points for a period of 96 hours.
Important:
When the 10,000 logged data points have been exceeded while running on the
backup battery, the oldest logged data point on the Smart Probe will be overwritten
starting from the oldest data point saved on the Smart Probe. A logging interval of
at least 35 seconds or longer will prevent the overwriting of data during the 96-hour
period the battery is in use.
4.4.3 Power Over Ethernet (PoE)
The iS2-THB-DP and iS2-THB-DTC both offer a Power over Ethernet (POE) feature that
provides the device with sufficient power to operate when connected to a PC or router that
supports Power over Ethernet. Use an RJ45 Ethernet cable to connect the output port of the
PoE Injector to the iServer 2. Then use a second RJ45 Ethernet cable to connect the input
port of the PoE Injector to a standard router or PC in conjunction with the PoE injector. When
the assembled PoE Injector is plugged into a power outlet, the device will power on.
Figure 12: 9-Volt battery installation
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5 Connecting to your PC
Figure 14: iServer 2 label showing unique
MAC address
To connect your iServer 2 unit to your PC, follow the instructions for one of the
listed below.
Figure 13: iServer 2 login page
A successful setup will result in the user accessing the webserver login page. Refer to the applicable
connection method below:
5.1 Method 1 – DHCP Router Setup (Display Models only)
Connect your iServer 2 directly to a DHCP-enabled router using an RJ45 cable. On the display
model, the assigned IP address will appear on the lower right of the device display. Open a web
browser and navigate to the assigned IP address to access the web UI.
three setup methods
Important:
For non-display models, the user will need to check the router’s client IP table to
connect via DHCP or connect using Method 2 or 3.
5.2 Method 2 – Direct to PC Setup with an RJ45 Ethernet Cable (Display and Non-Display
Models)
Connect your iServer 2 directly to your PC using an RJ45 Ethernet cable. Identify the
assigned to your iServer 2 by checking the label on the backside of the device.
Open a web browser and enter the following URL to access
the web UI:
http://is2-omegaXXXX.local
(the XXXX should be replaced by the last 4 digits of the
iServer unit MAC address)
MAC Address
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Figure 15: Windows Control Panel
Network and Sharing Center
Figure 16: Network and Sharing Center – Unidentified Network
Figure 17: Unidentified Network Status
5.3 Method 3 – Direct to PC Setup – Micro USB 2.0 (
Important:
To begin, connect the iServer 2 directly to the PC using a micro-USB 2.0 cable.
Step 1:
Navigate to the
and Sharing Center
Step 2:
Click the
Step 3:
Click
Administrator access to the PC may be required to change the PC Network
Properties. The default static IP for connections through USB is:
user is unable to access the iServer 2 webserver UI, the Bonjour Service may need
to be installed. The service can be downloaded from the following URL:
https://omegaupdates.azurewebsites.net/software/bonjour
Windows Control Panel
.
Unidentified Network Connection.
Properties
.
Display and Non-Display Models
and click
Network
)
192.168.3.200
. If the
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Figure 19: TCP/IPv4 and subnet mask properties for micro-USB 2.0
connection
Figure 18: Unidentified Network Properties
Step 4:
Internet Protocol Version 4
Click
TCP/IPv4)
(
and then click
to highlight the selection
Properties.
Step 5:
Fill out the field for the IP address
with the following:
192.168.3.XXX
(the XXX can be any value that is
NOT
200)
Fill the Subnet Mask field with the
following:
255.255.255.0
OK
Click
following address to access the web UI:
to finalize and then reboot the PC. Open a web browser and navigate to the
http://192.168.3.200
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6 Navigating the iServer 2 Web UI
Figure 20: iServer 2 label unique to each
device
Figure 22: Probe device name configuration
Users who are signing in to the web UI for the first time, or if the login information has not been
changed, can type the following information to login:
Username:
The password is provided on a label located on the back of the
physical unit. Once logged in, the web UI will display the sensor
readings as different gauges.
admin
Figure 21: iServer 2 web UI main homepage – Gauge View
From the web UI, users can configure Network settings, Logging settings, Events & Notifications, and
System settings.
6.1 Device Name and Sensor Firmware Information
While in Gauge View, the
Gear Icon
under the
name of the iServer 2 device and view the current firmware, available channels, and core version
number. When the Gear icon is clicked, the user will be able to choose between
Information
.
System Tab
will allow users to configure the
Configure
6.1.1 Configuring Device Name
(Configure)
From the
update the sensor device name as it
appears in the web UI.
Configure
window, users may
and
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6.1.2 Omega Link Smart Probe Firmware Download and Update (Information)
From the
Smart Probe and download it. If a firmware update is available, the user will be able to
download it directly from the clickable
appears below.
Information
window, users can check online for the latest firmware version of their
Update Required
Download Firmware
or
link that
Figure 23: Smart Probe firmware update available
Once the firmware update file has been downloaded to the PC, the user will need to click
Browse
click
and select the recently downloaded firmware file. Once the file has been selected,
Upgrade
to start the firmware update process.
Figure 24: Smart Probe update in progress
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Figure 25: Successful smart probe firmware update
When the Smart Probe firmware update is successful, a success message will briefly appear
and instruct the user to reboot the device. At this point, the user may reboot the device and
refresh the iServer 2 web UI page to sign back into the web UI and view the updated probe
information.
If the probe is up to date and no update is required, the web UI will state that the latest
firmware is being used.
Figure 26: Smart Probe firmware up-to-date
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6.1.2.1 Advanced Smart Probe Configuration and Alternative Firmware Update with
SYNC
Omega Link Smart Probe firmware updates can also be completed through Omega’s
SYNC configuration software.
web UI.
Simply launch the software on a PC with an open USB port, and connect the
Smart Probe to the PC using an Omega Link Smart Interface, such as the IF-001 or IF006-NA.
Figure 27: SYNC auto-detects smart probes connected through an Omega Smart Interface like IF-001
The firmware must still be downloaded from the iServer 2
SYNC will automatically detect the connected Smart Probe and will display the device
Inputs
tab. Click the
Device Settings
tab and click the
Firmware Update
button.
Figure 28: SYNC Device Settings and Firmware Update button
The user will be given the option to save any previously logged device data, however,
users should note this option may take up to 10 minutes to complete.
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Figure 29: SYNC option to save logged device data prior to firmware update
Open the
.hex
file from the File Explorer containing the latest firmware for your Smart
Probe to begin the firmware update process.
Figure 30: Firmware update process
When the update is complete, the user will need to confirm on screen that the device will
be power cycled. SYNC will reopen the Inputs UI tab once the process is complete.
Figure 31: After the update, the user will need to powercycle and SYNC will open on the inputs tab
once complete
For additional information regarding the configuration of your
Smart Probe
, refer to the
user’s documentation associated with your Smart Probe model number. SYNC
configuration software can be downloaded for free at:
https://www.omega.com/en-us/data-acquisition/software/sync-software/p/SYNC-byOmega
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6.2 Network
To manually change the IP Address, Netmask, and Gateway address of the iServer 2, the user must
click the primary Network Tab from the main iServer 2 web UI page.
Figure 32: iServer 2 web UI Network tab
Click the
Static
bubble as shown in section
configuration of the IP Address, Netmask, and Gateway addresses.
6.2.1 Network Configuration
Clicking the
parameters and Ethernet interface options.
Network
6.2.1 Network Configuration
to enable the manual
tab of the iServer 2 web UI provides a window to configure IP
DHCP
•
– If the DHCP bubble is selected, the iServer 2 will dynamically request an IP address, a
subnet mask, a gateway address, and a DNS address from the DHCP server. The DHCP option
is enabled by default.
Static
•
– If the Static bubble is selected, the user will be able to configure the IP Address,
Netmask, and Gateway address for the iServer 2 manually.
IP Address
•
– This indicates the IP address of the iServer. When DHCP is enabled, this field will
be dimmed. When Static is enabled, the IP Address can be changed.
Netmask
•
– A 32-bit number that is used to distinguish the network and host portions of the IP
address. The iServer 2 default Netmask is
be dimmed. When Static is enabled, the IP Address can be changed.
Figure 33: DHCP/Static network configuration window
255.255.255.0
When DHCP is enabled, this field will
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Gateway Address
•
– The IP address of the router which functions as gateway to the network.
This points to the router that forwards traffic to a destination address outside of the subnet on
which the iServer resides.
6.3 Logging
The features in the logging tab allow users to set the automatic logging interval, retrieve recorded
data from a date range, and save it as a .CSV file. The Clear Log Data button can be used to erase
data that has been recorded in the internal 11 GB memory.
Note:
The maximum log interval for a Smart Probe is 66536 seconds, or about 18 hours.
Figure 34: iServer 2 Logging configuration window
6.3.1 Clear Log Data When Switching Smart Probe Types (
Important:
Follow the instructions below to complete the process:
Step 1:
Unplug the Smart Probe currently plugged in to the iServer 2 unit.
Step 2:
Click the
Step 3:
Plug in the new Smart Probe.
The iServer 2 accepts a multitude of different Omega Link Smart Probe types.
If the user intends to plug in a Smart Probe of a different measurement type,
Clear Log Data
the
plugged in.
Clear Log Data
button must be pressed before the new Smart Probe is
button on the iServer 2 web UI. The iServer 2 will reboot.
Smart Probe Models Only
)
Note:
This function is only available for Admin user accounts.
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6.4 How to Retrieve Logged Data
Alarm Trigger
Description
System Error
Notifies the user when there is a probe fault.
Battery Level Warning
Notifies the user when the iServer 2 battery power is running
low.
TTL Contact Activation
Notifies the user when a Contact Closure alarm has been
triggered.
Probe Disconnection
Notifies the user when a probe has been disconnected from
the iServer 2.
Out of Memory
Notifies the user when the internal iServer 2 memory is full.
Power Reset
Notifies the user when a power reset has occurred.
Sample Rate
2 Active
Sensors
4 Active
Sensors
1 second
(max)
4 years
2 years
5 seconds
24 years
12 years
10 seconds
40 years
20 years
After a date range is set, click
are made to the logging interval, click
The log interval can be configured to change the frequency that data is logged. Data will be logged
into the internal 11 GB memory. Some Smart Probes come with more than one active sensor.
These sensors can be individually enabled or disabled using Omega’s SYNC configuration
software. The log interval can be configured to adjust the lifespan of the internal memory capacity
according to this table:
Retrieve Data
6.5 Events and Notifications Configuration
The Events and Notifications window of the iServer 2 web UI allows users to configure alarm
thresholds, triggers, and notification parameters. The following table describes the available alarm
triggers.
to download the logged data as a .CSV file. If changes
Update
to finalize the changes.
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6.5.1 Buzzer
From the
and select the measurement device that the alarms will apply to.
Alarm
tab, users can enable or disable the alarm notification, set the trigger event,
Figure 35: iServer 2 Alarm notification configuration window
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6.5.2 Relay 1 and Relay 2
Relay 1
The
iServer 2. The initial relay states can be changed between
Closed
. The relay triggers and input devices they apply to can be selected in this window as
well. For more information regarding the relay connector, refer to section
Relays
.
and
Relay 2
tabs allow users to configure the first and second relays of the
Normally Open
Normally
and
4.3 Digital I/O and
Important:
When wiring the included terminal block connectors to access the digital I/O,
alarms, or relays, it is recommended that users ground the unit by connecting a
wire to the chassis ground of the connectors shown in Figure 9.
Figure 36: IServer 2 Relay notification configuration window
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6.5.3 Email
From the email tab, users can create a list of recipients who will be notified via email
depending on the parameters that are established. The
operation updates at a configurable frequency. The
alarm notifications that will be sent via email after the initial notification is sent.
Heartbeat Interval
Alarm Interval
provides normal
controls the frequency of
Figure 37: Email notification configuration window
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6.5.4 Digital I/O
The Digital I/O tab is used to configure the first and second
Both can be enabled or disabled independently of one another and can be set to be
displayed on the homepage or Log. For wiring and pinouts, refer to section
and Relays
Digital Output
The
Digital Inputs
on the iServer 2.
4.3 Digital I/O
. The initial state of the contacts can be set to Normally Open or Normally Closed.
can be set to
Active High
Active Low
or
.
Important:
When wiring the included terminal block connectors to access the digital I/O,
alarms, or relays, it is recommended that users ground the unit by connecting a
wire to the chassis ground of the connectors shown in Figure 9.
Figure 38: iServer 2 Contact Closure configuration window
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6.6 System Configuration
System Configuration
The
menu provides users with configuration options that affect the iServer 2
unit and web UI. Changes to the units, date, and time will affect logging information and will be
reflected in the web UI and on the iServer 2 display.
6.6.1 System
The primary
firmware updates, and configuring the system time. The Onboard Thermocouple Selection is
only available on the iS2-THB-DTC and can be set to Single or Dual TC. The Date, Time, and
Time Zone as it appears in the UI can be set manually. Additionally, firmware update files can
be selected and uploaded here.
be performed here.
System
tab allows users to control a variety of functions such as factory resets,
System Reboot, Factory Reset
Configuration Reset
, and
may
Caution:
Clicking the Factory Reset or Configuration Reset button while a Smart Probe is
plugged in to the iServer 2 will clear any user set probe configuration settings.
Figure 39: iServer 2 System configuration window
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6.6.2 Profile
Profile
The
tab allows users to update their username and password.
6.6.3 Units
The
web UI.
Figure 40: iServer 2 web UI User Name and Password configuration
Units
tab allows users to configure the displayed units of measure as they appear in the
Figure 41: iServer 2 web UI display units configuration
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6.7 Channel Settings
Clicking on the individual gauge display readings in the web UI will bring up the Channel Settings
window. Gain and Offset values can be applied, display ranges can be set, and alarm triggers can
be defined. If any configurations are made to this menu, the user must click
changes.
Update
to finalize the
6.7.1 Gain and Offset
A Gain value is a multiplier added to the sensor reading value. The Gain value can be
positive, negative, and/or a decimal value. A decimal value will divide the sensor reading. A
negative value will invert the sensor reading. An Offset value adds or subtracts a constant
value to the sensor reading. The offset is applied after the Gain.
The equation for an input value scaled by Gain and Offset is given below:
6.7.2 Alarm Trigger
Alarms for a channel input may be configured to trigger based thresholds that can be set to a
range (High Low), Above, or Below a certain reading.
Figure 42: Sensor input channel configuration
Input
Scaled
= (Input
X Gain) + Offset
Raw
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6.7.3 Thermocouple Configuration Interface (TC Models Only)
Thermocouple compatible models of the iServer 2 offer a
in the web UI. To begin cold junction calibration, follow the steps below:
Note:
Cold Junction Calibration is not available for thermocouple types: R, S, and B.
Figure 43: Thermocouple Cold Junction Calibration
Cold Junction Calibration
feature
Step 1:
Step 2:
Step 3:
Step 4:
Click on the channel readings for the input that will undergo cold junction calibration.
Click on the
Click the
Once notified by the web UI that the calibration was successful, click OK to finalize the
changes.
Cold Junction
Proceed
button.
button.
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6.8 Gauge / Chart Web UI View
The iServer 2 web UI presents sensor readings in Gauge View by default, however, users can select
the Chart button to enable Chart View.
Figure 44: iServer 2 web UI - Chart View
From Chart View, users can still access the different sensor channel inputs by clicking the readings.
Live readings will be graphed automatically once the Chart View is enabled. View range and the
Secondary Y-Axis source can be updated by clicking the buttons at the bottom of the UI, while the
Maximum and Minimum graphed values can be adjusted on the left and right sides of the chart.
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7 Adding an iServer 2 to Omega Enterprise Gateway (OEG)
iServer 2 devices can be added to Omega Enterprise Gateway 2.4 (OEG) in a non-internet
environment by adding the iServer 2 to OEG as a device. An active OEG license and access to a
Windows 7, 8, 9, or 10 OS PC is required to download and run OEG. OEG can be purchased and
downloaded from the following link: https://www.omega.com/en-us/oeg
There are two methods to connect the iServer 2 to OEG. The first method requires the iServer 2 to be
set to the default DHCP network setting and requires access to a DHCP-enabled router with an open
port and an RJ45 Ethernet cable. The second method requires Administrator access to the Windows
OS PC running OEG and requires the iServer 2 to be set to the Static IP network setting and the iServer
2 unit to be plugged in directly to the Windows PC.
7.1 Method 1: DHCP Router Method
To add an iServer 2 to OEG using the DHCP router method, begin by ensuring the iServer 2 is set to
the default DHCP network settings (
Step 1:
Step 2:
Connect the iServer 2 unit to a DHCP-enabled router using an RJ45 Ethernet cable.
Ensure the Windows PC that will run OEG is on the same network as the connected iServer
2.
Step 3:
Launch and log in to your OEG account.
6.2.1 Network Configuration
) and follow the steps below.
Step 4:
Click the icon or
and click TC or
iServer 2 being connected.
Add Devices
Probe
from the
Figure 45: OEG Add Devices menu – iServer 2 Model
. Then select
Product Model
iServer 2
dropdown, depending on the model of
from the
Product Family
dropdown
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Figure 47: Windows Network and
Sharing Center
Step 5:
Input the IP Address of the connected iServer 2
as it appears in your local-area network
Figure 46: OEG Add Devices menu – Connection Parameters
Important:
If the DHCP-enabled iServer 2 unit has been disconnected and moved to a separate
DHCP-enabled, local-area network router or PC, the user must identify the new IP
Address that the unit has been assigned under the local-area network. For models with a
display, the new IP Address will appear on the unit display. For models without a display,
users can access the iServer 2 web UI to check the new IP Address (
Configuration
).
6.2.1 Network
Step 6:
Click
Add
to finalize your configuration.
All sensing devices connected to the iServer 2 will appear on OEG after the pairing is successful.
The readings from offline units will display NaN. For more information on how to navigate OEG,
refer to the OEG Software User’s Manual.
.
7.2 Method 2: Static IP (Direct to PC) Method
To add an iServer 2 to OEG using the Static IP (direct to PC) method, begin by ensuring the iServer
2 is set to the Static IP network settings (
address is set to the preferred address. The Windows PC network settings will need to be
configured to properly pair the iServer 2 and OEG. Follow the steps below:
Important:
Step 1:
Navigate to the iServer 2 web UI and assign a Static IP address to the iServer 2 unit. Then
exit the web UI.
Step 2:
Connect the iServer 2 unit directly to the Windows PC with OEG using an RJ45 Ethernet
cable.
Step 3:
Navigate to the
Network and Sharing Center
Administrator access to the Windows PC is required to configure the Network
settings of the PC.
Windows Control Panel
.
6.2.1 Network Configuration
and click
) and confirm the Static IP
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Figure 48: Network and Sharing Center – Unidentified Network
Figure 49: Unidentified Network Status
Step 4:
Click the
Unidentified Network Connection.
Step 5:
Click
Properties
.
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Figure 51: TCP/IPv4 and subnet mask properties for micro-USB 2.0
connection
Figure 50: Unidentified Network Properties
Step 6:
Internet Protocol Version 4
Click
TCP/IPv4)
(
and then click
to highlight the selection
Properties.
Step 7:
Click
Use the following IP
address
and enter an IP address
that uses the same network part
(the first nine digits of the IP
address) but with a unique host
part (the last three digits of the IP
address) as the static IP Address
assigned to the iServer 2 in Step
1.
For example, if the Static IP
assigned to the iServer 2 is:
Step 8:
192.168.3.200,
entered in the text box should be:
192.168.3.XXX
any value that is
OK
Click
then the IP address
(the XXX should be
NOT
200)
to finalize
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Step 9:
Step 10:
Launch and log in to your OEG account.
Step 11:
Click the icon or
Add Devices
dropdown and click TC or
Probe
. Then select
from the
iServer 2
Product Model
model of iServer 2 being connected.
Figure 52: OEG Add Devices menu – iServer 2 Model
Input the static IP Address of the connected iServer 2.
from the
Product Family
dropdown, depending on the
Figure 53: OEG Add Devices menu – Connection Parameters
Step 12:
Click
Add
to finalize your configuration.
All sensing devices connected to the iServer 2 will appear on OEG after the pairing is successful.
The readings from offline units will display NaN. For more information on how to navigate OEG,
refer to the OEG Software User’s Manual.
7.3 Configuring Sensing Devices after Pairing with OEG
If a sensing device paired to the iServer 2 has been configured or modified after the iServer 2 has
been added to OEG, the user must reboot the iServer 2 and restart the OEG software to sync with
the configuration made to the connected device.
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8 iServer2 Modbus Holding Register Partition
Address
Description
Usage
0x0000 –
0x0063
Channel readings
(read only)
Readings from the iserver2
0x0064 –
0x0191
Device meta
Model number, firmware version, device information
0x0192 –
0xFFFF
Configuration
Configuration registers for device and readings
Register 1
Register 2
Value (IEEE 754 floating point
value)
The following section details the Modbus Register list associated with the iServer 2.
8.1 Holding Registers Partition!
The iServer 2 Modbus registers are partitioned as listed below in Table 1.
Table 1: iServer 2 Modbus Partition
8.2 Channel Value Registers!
Channel registers range from 0000 to 0063. All registers in this range are read-only. Each
measurement or input consists of 2 registers. The registers are defined as:
NaN is used as an indicator for no measurements, disabled, hardware failure, out of spec, etc. The
NaN value is defined in Table 4.
The iServer2 queries different probes depending on the model. "Probe 0" is for thermocouple
readings only available for -DTC models. "Probe 1" and "Probe 2" are designated for Omega Link
Smart Probes attached to Smart Probe compatible variants of the iServer 2. Each "Probe" has a
maximum of 4 channels (0-3). The Modbus address can be calculated as such:
Modbus address = (probe number)*8 + (channel_number)*2
Floating point value of the measurement if the value is NaN:
0x7f800000: value error
0x7f800001: open
0x7f800002: short
0x7f800003: range
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Table 2: Measurement Values
Register
Description
RW
Type
Values
Register
Size
0x0000
Probe 0 Channel
0 reading
R
Float
Thermocouple 1 reading or legacy
probe channel 0
2
0x0002
Probe 0 Channel
1 reading
R
Float
Thermocouple 2 reading or legacy
probe channel 1
2
0x0004
Probe 0 Channel
2 reading
R
Float
legacy probe channel 2
2
0x0006
Probe 0 Channel
3 reading
R
Float
legacy probe channel 3
2
0x0008
Probe 1 Channel
0 reading
R
Float
Smart probe 1 channel 0
2
0x000A
Probe 1 Channel
1 reading
R
Float
Smart probe 1 channel 1
2
0x000C
Probe 1 Channel
2 reading
R
Float
Smart probe 1 channel 2
2
0x000E
Probe 1 Channel
3 reading
R
Float
Smart probe 1 channel 3
2
0x0010
Probe 2 Channel
0 reading
R
Float
Smart probe 2 channel 0
2
0x0012
Probe 2 Channel
1 reading
R
Float
Smart probe 2 channel 1
2
0x0014
Probe 2 Channel
2 reading
R
Float
Smart probe 2 channel 2
2
0x0016
Probe 2 Channel
3 reading
R
Float
Smart probe 2 channel 3
2
Register
Description
RW
Type
Values
Register
Size
0x0064
Model
R
STRING_16
Max 16 Character Model
8
0x0072
Firmware
Version
R
UINT_32
32-bit integer. Translate to form
of major, minor, bug, build,
corresponding to each byte
2
0x0074
Hardware
Version
R
UINT_32
32-bit integer. Value interpolates
as REV xxx
2
0x0076
Device ID
R
UINT_32
Unique identifier such as serial
number. 32-bit integer
2
0x0078
Device Name
R/W
STRING_16
Device name, Max 16 characters
8
0x0086
Manufactured
Date
R
UINT_32
Date comes from probe 0
2
0x0088
Calibrated
Date
R
UINT_32
Date comes from probe 0
2
8.3 Device Meta Modbus Registers!
Channel registers range from 0x0064 to 0x0191. Device meta registers define device meta
information including firmware, name, etc.
Table 3: Device Meta Registers
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8.4 Device Configuration and Channel Configuration Registers!
Register
Description
RW
Type
Values
Register Size
0x0192
Log Enable
R/W
UINT_16
0 – disable, 1- enable
1
0x0193
Log Rate
R/W
UINT_16
Logging rate in seconds
1
0x0194
Buzzer Triggers
R/W
UINT_32
Event triggers for turning
on the buzzer.
2
0x0196
Relay 1 Triggers
R/W
UINT_32
Event triggers for
opening/closing relay1.
2
0x0198
Relay 1
Configuration
R/W
UINT_32
Bit 0 – 0- normally closed,
1-normally open
Bit 1 – 0- don’t log, 1- log
Bit 2 – 0 -don’t display on
homepage, 1- display on
homepage
Bit 3 – 0 – disable
latching, 1- enable
latching
2
0x019A
Relay 1 Clear
Latch
W
UINT_32
1-Clear latch
2
0x019C
Relay 1 Name
R/W
STRING_16
Max 16 chars
8
0x01A4
Relay 2 Triggers
R/W
UINT_32
Event triggers for
opening/closing relay2.
2
0x01A6
Relay 2
Configuration
R/W
UINT_32
Bit 0 – 0- normally closed,
1-normally open
Bit 1 – 0- don’t log, 1- log
Bit 2 – 0 -don’t display on
homepage, 1- display on
homepage
Bit 3 – 0 – disable
latching, 1- enable
latching
2
0x01A8
Relay 2 Clear
Latch
W
UINT_32
1-Clear latch
2
0x01AA
Relay 2 Name
R/W
STRING_16
Max 16 chars
8
0x01B2
Probe 0 Sensor
Count
R
UINT_16
Number of active
thermocouples or sensor
count of legacy probe
1
0x01B3
Probe 1 Sensor
Count
R
UINT_16
Sensor count on
smartprobe 1
1
0x01B4
Probe 2 Sensor
Count
R
UINT_16
Sensor count on
smartprobe 2
1
Device configuration and channel configuration range from 0x0192 – 0xFFFF.
Table 4a: Device Configuration and States
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Table 4b: Device Configuration and States
Register
Description
RW
Type
Values
Register Size
0x01B5
Probe 0 Channel
0 measurement
type
R
UINT_16
Thermocouple 1 or
legacy probe channel 0
measurement type
1
0x01B6
Probe 0 Channel
1 measurement
type
R
UINT_16
Thermocouple 2 or
legacy probe channel 1
measurement type
1
0x01B7
Probe 0 Channel
2 measurement
type
R
UINT_16
Legacy probe channel 2
measurement type
1
0x01B8
Probe 0 Channel
3 measurement
type
R
UINT_16
legacy probe channel 3
measurement type
1
0x01B9
Probe 1 Channel
0 measurement
type
R
UINT_16
Smart probe 1 channel 0
measurement type
1
0x01BA
Probe 1 Channel
1 measurement
type
R
UINT_16
Smart probe 1 channel 1
measurement type
1
0x01BB
Probe 1 Channel
2 measurement
type
R
UINT_16
Smart probe 1 channel 2
measurement type
1
0x01BC
Probe 1 Channel
3 measurement
type
R
UINT_16
Smart probe 1 channel 3
measurement type
1
0x01BD
Probe 2 Channel
0 measurement
type
R
UINT_16
Smart probe 2 channel 0
measurement type
1
0x01BE
Probe 2 Channel
1 measurement
type
R
UINT_16
Smart probe 2 channel 1
measurement type
1
0x01BF
Probe 2 Channel
2 measurement
type
R
UINT_16
Smart probe 2 channel 2
measurement type
1
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Register
Description
RW
Type
Values
Register Size
0x01C0
Probe 2 Channel
3 measurement
type
R
UINT_16
Smart probe 2 channel 3s
measurement type
1
0x01D0
Probe 0 Channel
0 name
R/W
STRING_16
Thermocouple 1 or
legacy probe channel 0
name
8
0x01D8
Probe 0 Channel
1 name
R/W
STRING_16
Thermocouple 2 or
legacy probe channel 1
name
8
0x01E0
Probe 0 Channel
2 name
R/W
STRING_16
legacy probe channel 2
name
8
0x01E8
Probe 0 Channel
3 name
R/W
STRING_16
legacy probe channel 3
name
8
0x01F0
Probe 1 Channel
0 name
R/W
STRING_16
Smart probe 1 channel 0
name
8
0x01F8
Probe 1 Channel
1 name
R/W
STRING_16
Smart probe 1 channel 1
name
8
0x0200
Probe 1 Channel
2 name
R/W
STRING_16
Smart probe 1 channel 2
name
8
0x0208
Probe 1 Channel
3 name
R/W
STRING_16
Smart probe 1 channel 3
name
8
0x0210
Probe 2 Channel
0 name
R/W
STRING_16
Smart probe 2 channel 0
name
8
0x0218
Probe 2 Channel
1 name
R/W
STRING_16
Smart probe 2 channel 1
name
8
0x0220
Probe 2 Channel
2 name
R/W
STRING_16
Smart probe 2 channel 2
name
8
0x0228
Probe 2 Channel
3 name
R/W
STRING_16
Smart probe 2 channel 3
name
8
0x0230
Probe 0 Channel
0 unit
R
STRING_4
Thermocouple 1 or
legacy probe channel 0
unit
2
0x0232
Probe 0 Channel
1 unit
R
STRING_4
Thermocouple 2 or
legacy probe channel 1
unit
2
0x0234
Probe 0 Channel
2 unit
R
STRING_4
legacy probe channel 2
unit
2
0x0236
Probe 0 Channel
3 unit
R
STRING_4
legacy probe channel 3
unit
2
0x0238
Probe 1 Channel
0 unit
R
STRING_4
Smart probe 1 channel 0
unit
2
0x023A
Probe 1 Channel
1 unit
R
STRING_4
Smart probe 1 channel 1
unit
2
0x023C
Probe 1 Channel
2 unit
R
STRING_4
Smart probe 1 channel 2
unit
2
0x023E
Probe 1 Channel
3 unit
R
STRING_4
Smart probe 1 channel 3
unit
2
0x0240
Probe 2 Channel
0 unit
R
STRING_4
Smart probe 2 channel 0
unit
2
Table 4c: Device Configuration and States
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Register
Description
RW
Type
Values
Register Size
0x0242
Probe 2 Channel
1 unit
R
STRING_4
Smart probe 2 channel 1
unit
2
0x0244
Probe 2 Channel
2 unit
R
STRING_4
Smart probe 2 channel 2
unit
2
0x0246
Probe 2 Channel
3 unit
R
STRING_4
Smart probe 2 channel 3
unit
2
0x0248
Probe 0 Name
R/W
STRING_16
Onboard msp name
8
0x0250
Probe 1 Name
R/W
STRING_16
Smart probe 1 name
8
0x0258
Probe 2 Name
R/W
STRING_16
Smart probe 2 name
8
Table 4d: Device Configuration and States
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9 Appendix A: Troubleshooting
Error
Message
Description
OPEN
Probe sensor reads open, or thermocouple
disconnected
SHORT
Sensor is shorted
RANGE
Reading is out of range
NAN / INVAL
Reading is invalid
See the table below for error messages and descriptions that may appear while operating the iServer
2.
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10 iServer 2 Specifications
Sample Rate
2 Active
Sensors
4 Active
Sensors
1 second
(max)
4 years
2 years
5 seconds
24 years
12 years
10 seconds
40 years
20 years
INTERFACES
Available input ports vary depending on the iServer 2 model
Ethernet (RJ45):
Supported Protocols:
Omega Link Smart Probe:
Thermocouple:
Digital I/O and Relays:
LED Indicators:
Alarm I/O:
Sample Rate:
Memory Capacity and Sample Rate:
the 11 GB of storage is filled. Some Smart Probes come with more than one active sensor. These
sensors can be individually enabled and disabled using Omega's SYNC configuration software.
1x port (Power over Ethernet available on qualifying models)
TCP, UDP, SNMP, SNTP, ARP, ICMP, DNS, HTTP, and Telnet
1x M12 8-Pin port
2x ports (available on qualifying models)
2x RS232/RS485 1.5 A @ 30 V DC
100 BASE-T, Network Link and Activity, DHCP, Internet
Two contact inputs TTL 0.5; one open collector output 150 mA @ 30 V DC
8 samples/second max
The table below lists the lifespan of the internal storage before
Management:
Embedded WEB Server:
Device and probe configuration and monitoring through embedded WEB server
views and charts within definable time intervals.
MECHANICAL
Dimensions of Base Device:
Material:
Display:
Weight:
Stainless Steel
LCD 32 mm L x 93.5 mm W
655 g (1.44 lbs.), including battery
POWER
Power Input:
Consumption:
AC Power Adapter (Included) Nominal Output:
Power Over Ethernet:
Input:
Back-Up Battery:
100 to 240 V AC, 50/60 Hz
9 to 12 V DC
4 W
IEEE 802.3AF, 44 V – 49 V, Power Consumption under 10 W
9 V DC, alkaline. 96 hours at 5 seconds recording intervals and 1 second reading
with two connected probes
ENVIRONMENTAL
Operating Temperatures
iServer 2 Unit:
Battery:
-18 to 55°C (-0.4 to 131°F)
0 to 60°C (32 to 140°F)
Servers WEB pages containing real-time data and live updated gauge
101.6 mm L x 155.6 mm W x 330 mm H (4 in. L x 6.13 in. W x 12.99 in. H)
not including bracket and M12 connector
12 V DC @ 1.5 A
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GENERAL
AC Power Adapter:
Industrial Cable:
Storage Temperature:
0 to 40°C (32 to 104°F)
-40 to 125°C (-40 to 257°F)
Configuration:
Software:
Internal Web UI
Access web server using any modern web browser such as Chrome, Edge, or Firefox on
the same local network; Firmware upgrade from Internet; Export probe data log to CSV
files
Agency Approvals:
CE
UKCA
Canada ICES-3(B)/NMB-3(B)
FCC
This device complies with part 15 of the FCC Rules. Operation is subject to the
following two conditions: (1) This device may not cause harmful interference,
and (2) this device must accept any interference received, including interference
that may cause undesired operation.
Changes or modifications made to this equipment not expressly approved by
Omega Engineering, Inc. may void the user’s authorization to operate this
equipment.
-40 to 85°C (-40 to 185°F)
(Part 15, Subpart B, Class B of the FCC rules)
46 | M5791
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