AirTest IAQEye TR8910 User manual

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User Manual: IAQEye (10/24/22)
Quick Overview
The IAQ EYE is a wall mounted, WiFi communicating, air quality transmitter that is designed to monitor
air quality and/or interface to building control equipment. It is available with configuration options for:
• Battery or 24 VAC/VDC: Option of a battery powered (2 AA 3.6V Lithium), or 24VAC/VDC
operation.Battery life of 1 to 1.5 -years at 15-minute sample and send interval.
• E-Ink Display: Option of a bright white, E-ink display or no display versions.
• Visual/Audible Alarm: Ability to set visual and audible alarms for targeted values.
• Add Analog Inputs: Ability to add 3 analog inputs (two 4-20 mA or 0-10V and one 10K2 or 0-5 V
input).
• RTU Interface for CO2 DCV: Ability to add the AirTest RTUiLINK WiFi gateway which connects
the IAQEye™ to a rooftop air handling unit (RTU) with an economizer to provide CO2 based,
demand-controlled ventilation. This connection can either be by a peer-to-peer WiFi connection
or via a local WiFi network.
• Interface to BACnet Control Systems: Ability to use the BB3-7301-AT Babel Buster WiFi-to-
BACnet gateway to connect the transmitter to a BACnet control system. One gateway supports
up to 100 Transmitters. Measurement data appears as BACnet objects in the Babel Buster
interface.
• Cloud Data Monitoring: A cloud portal is available to allow for monitoring, profiling and storage
of data measured. This option is a factory setting and must be ordered at time of sale.
• IAQEye Reporter: Connect to the IAQEye™ with a phone using the QR code on the bottom
label. A summary of the last week of data is visible on the phone. Feature enabled in late of
2022 if the device is connected to the internet.

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Model Numbers
Functionality

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IAQEye™ Interface Options
1. LEED Mode: Stand Alone Monitoring and Alarm
The IAQEye™ in battery or powered mode can display the values of
Temperature, Humidity, Dew Point and Carbon Dioxide. It is also possible to
program the IAQ Eye to illuminate LED lights (Green, Yellow, Red), and sound
an audible alert if levels of any measured parameter exceed a user defined
level. The status bar on the display can also show the elevated measure
parameters with an exclamation mark (CO2!).
2. Integration Into 3rd Party IP Based Monitoring Systems
The IAQEye™ communicates over WiFi and the internet using a UDP protocol.
This information can be sent to any internet or network connected device to
capable of translating the UDP packets . The UDP communication protocol can
be downloaded at this link: https://www.AirTest.com/man/IAQEyeUDP.com .
3. RTUiLINK™ :Adds CO2 DCV To Rooftop HVAC Systems
The RTUiLink (TR4201) is a WiFi receiver that is placed in a RTU to provide a
CO2 DCV signal to the economizer from the IAQEye™ mounted in the space.
Communication can be peer-to-peer between devices or part of a larger WiFi
network that may already be in place. Designed for RTUs controlled by
thermostats where the CO2 signal is driven by a 0-10 or 2-10 VDC input into a
fresh air economizer control.
4. CLOUDiLINK™: Internet Based Cloud Monitoring and Alarm
This is a feature that can provide a secure, cloud-based dashboard to show
measurement values, short- and long-term trends. The application can also
send email and text alerts and is designed to support multiple dispersed
geographic locations and multiple spaces at a particular location. This service
requires a secure factory installed certificate is installed the IAQEye™ at time of
manufacture.
5. Babel Buster Gateway: BACnet IP/TC IP Interface
The Babel Buster is a WiFi gateway that allows up to 100 IAQEye™ devices to
connect to a BACnet IP or TCP IP building control network with each
measurement parameter read as a BACnet object. The gateway is attached to
a local WiFi router near a BACnet network access point. A built-in webserver in
the Babel Buster allows configuration to the building control system. This
gateway will only work with products utilizing the IAQEye™ UDP
Communication protocol.

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Connecting and Configuring The IAQEye™
The IAQEye™ has a built-in web server that allows local access and adjustment of the transmitter
settings. To access the server, you must be withing 30 feet of the IAQEye with a WiFi enabled
smartphone, tablet or computer. This section describes how to set up the units and adjust its
operational settings. You may want to consider doing the initial setup on the unit at a bench before
traveling to the installation site.
1. Password Labels: The IAQEye™ is provided with two sets of labels that contain the unique 12-
Character MAC address for the transmitter and a password that enables log on access to the
IAQEye™. You can keep one version for your records and attach one to the enclosure. We
recommend that the label be placed on the back of the front cover at the bottom.
2. Open The Enclosure: The IAQEye™ enclosure must be
opened to fasten the base to a wall, to attach the password
label, to activate the device batteries or provide 24VAC/VDC
power wiring. Grip the case at the mid-way point and squeeze
inward. At the same time hook the finger of your other hand into
the wiring port on the back of the case and pull. When the device
is screwed to the wall, squeeze the sides of the case and pull
away from the wall.
3. Enabling power to the IAQEye™:
o For battery powered units, there is an on-switch on
the inside cover in the lower right corner of the circuit
board. If you are providing low voltage power to the
device, turn the battery switch off. If the device will
not be operating for a period of time, say after an
initial setup, turn the batteries off.
o For low voltage wiring (24VAC/DC) use 18-to-22-
gauge wire. Wires can be drawn through the rear
wiring port. The terminal blocks incorporate a lever
wire clamp that when pressed allows the
wire to be inserted into the side of the
terminal block. When the lever is
released, the wire is clamped in place.
The power wiring terminals are in the
red highlighted box labeled C (Common)
and R (Rail, DC +).
o A local CO2 0-10 VDC output is
available on the terminals on the upper
right labeled Ground and VOUT.All setting adjustments for the IAQEye™ using the WiFi
interface will affect this output. I
o When wiring or battery activation of the backplate
is complete, place for fit and press the front cover
into the back plate.

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4. Accessing the IAQEye™ On-Board Webserver for Product Configuration.
o The IAQEye™ must be powered to interface to the webserver. This means the device must
be hard-wired or battery-operated and in the awake state. Awake means the device is in a
mode to connect via WiFi and/or to make a measurement.
o If line-powered, the IAQEye™ is always in the
awake state. To wake up the device for battery
press and hold the raised button on the front cover
to the right of the AirTest logo for 10 seconds. After
10 seconds, the device will beep, two LEDs will
illuminate on the front cover. If there is a display, it
will go through a 20 second initiation process.
Once awake a green led will be illuminated on the
right side of the front cover indicating it is WiFi
accessible for 15 minutes.
o Once the IAQEye™ is awake, it’s time to connect to
its webserver. On your phone, tablet or computer go to
find local WiFi networks (SSIDs). Look for the network
that identified as “IAQEye-XXXX” (where XXXX is last
four characters of the MAC address of the unit you
want to configure). The MAC address is on the bottom
of the device.
o Select the WiFi network of the unit you want to adjust.
You may get an alert that says “no internet connection”.
That is because you are connecting to the device, not
the internet. This message is not a concern.The
connection is made at 2.4 GHz.
o Go to your web browser and input the address 192.168.10.1 into the browser which will
provide access to the IAQEye™ internal web server
and allow for adjustment of the transmitter settings.
o Next you will be asked for a password. Input the
password. Your WiFi connecting device should
remember this password for future connection, Your
IAQEye™ unit unique password is provided on two
labels provided with the unit. We suggest one of these
password labels should be affixed to the inside bottom
of the product enclosure as shown in the photo on the
previous page. The second label is used for your
records.
o The IAQEye™ menu should now appear on your
screen.( (See photo to the right).
o Note: The WiFi interface will disconnect after a period of
15 minutes. To re-activate the interface, hold the button
to the right of the Airtest Logo for 10 seconds or until the
LEDs on the front cover blink along with an audible
sound. You will have to reconnect to the sensor SSID to
continue adjustments to the interface.
o Now select the Network Settings to go through the process of connecting to a local network.
5. Network Settings Section

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Shown below on this page are four sequential captures of the Network Selection process for the
IAQEye™. To set up the network you will have to know the SSID and password of the network you will
be joining. Note: the IAQEye™ is designed to connect only to 2.4 gHz networks.
• The selection process allows you to connect to a visible network, or a hidden network (Graphic 1)
• If you select a hidden network, you will be prompted to input the SSID and password for the
network and press the connect button.
• If you select scan for networks a list of all visible networks available will be provided. Select the
appropriate network and input the password and press the connect button.
• If you are using a RTUiLINK™ with the IAQEye™ you have two connection options. You can
connect directly through the SSID of the RTUiLINK™, or communicate to it through the local
network. Note the RTUiLINK™ must be set up prior to connecting the IAQEye™.
• If you connect directly to
the RTUiLINK™
information will only be
shared between connected
devices and the units will
not communicate to a local
network or the internet. An internet connected network is
required to provide firmware updates, to establish a
CLOUDiLINK™ connection. A local network connection is
required to utilize the Babel Buster gateway to connect to
BACnet control systems.
• The final graphic on this page shows an example of a good
connection.
o There is a green circle next to the SSID name
o Connection status says no error
o An IP address is assigned to the unit
o The RSSI signal indicates the strength of the wireless
connection to whatever the IAQEye™ is connected to.
UDP Packet Configuration
This configuration is only used in conjunction with the Babel Buster
Gateway intended to communicate to BACnet IP and MS-TP
networks. The default IP address and Port as shown in the graphic sends the UDP Data Packet from
the IAQEye™ over the entire network. Data can also be sent to a specific receiving address IP and
port. If the UDP is not being used, it can be directed to a unused address and port.

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6. IAQEye™ System Setup
Temperature Units:
• Select temperature output in Metric (Celcius) or IP
(Fahrenheit) values.
• Device label is a custom descriptor for the location.
• Press Submit to make changes.
Offsets (Temp and % RH)
• Change these only if you are sure there is a need offset to
these values. Press Submit to make changes.
Sample Duration/Sampling Interval (in Minutes)
This is the sampling Interval at which the IAQEye™ takes a
measurement and updates the display.
o If operated on line power this should be set at 1 minute or more.
o If operated on battery power, best battery life (1.0 to 1.5 years)
occurs at an interval of 15-20 minutes setting.Battery life will
increase the higher the value.
Set API ET Interval
The API Function is used for firmware updates and cloud
monitoring. The API ET count is the broadcast interval at which
this data is set as a function of the sample duration. A value of 2
would mean there would be a broadcast every 2nd measurement.
Only the most current measurement is broadcasted. Default is 1.
The API function is the method of communication to the Amazon
Cloud and AirTest’s CLOUDiLINK™
Set UDP Interval
UDP is the information package sent by the IAQEye™ over the
WiFi network and the Internet. This is used by the Babel Buster
to Translate measured data into BACnet objects. Like the API
Interval above the UDP interval is a function of sample duration.
Setup Analog Inputs
The IAQEye has the ability to take 3 analog inputs (ANA1, ANA2
and ANA3) from other transmitter devices and broadcast it as part
of the units UDP communication protocol. Wiring terminals are
shown in the wiring section. Note: to use this analog input function
the IAQEye™ must be 24VAC/VDC powered.
If an analog input is used it should be enabled or turned off if not in
use. The radio buttons show the type of input allowed. Changing
the radio buttons will not change the input permitted which are:
ANA#1=0-10V, ANA#2 =4-20 mA and ANA#3 =0-5 Volts. If
different inputs are required from that shown it must be configured
when ordered.
The notes section allows up to 40 characters to describe what is
being measured and the measurement range. Analog values
measured will be broadcast as part of the UDP transmission of the
IAQEye™

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7. CO2 Commissioning
This section facilitates the adjustment of a number of
factors that affect the behavior of the IAQEye™. It is
important to note that CO2 adjustments in this section
affect the CO2 output on the IAQEye™
Sets the ppm Low/High range to control the damper
position for demand-controlled ventilation. Note any of
the IAQEye settings relate to the CO2 voltage output that
is on-board the IAQEye™. If using the RTUiLINK™,
Settings must be adjusted through the RTUiLINKTM.
DCV Status is an indicator flag that can be read by the
cloud to indicate if DCV is being utilized with this device.
• Typically, the low setting would be 0 ppm.
• Upper range should be set at 2000 ppm for
interface to most HVAC equipment. The CO2
Sensor does not measure over 2,000 ppm. Press
Submit to save settings.
This section establishes the CO2 Levels that LED
Indicators on the front cover of the IAQEye™ will
illuminate (Red/Amber/Green indicators).
• Recommend Green LED Limit 1000 ppm CO2.
• Recommended Red LED Level 1500 ppm CO2.
Select the VDC CO2 output range desired on the
IAQEye™ for a 0-10 or 2-10 VDC Range. Default is VDC
0-10.
Press Submit to save settings.
The Damper Test can be used as part of the
commissioning process to test to see if the CO2 output
from the IAQEye™ is actually modulating the damper.
Input a value for the test damper position. A 50 % value
would be a 5 VDC signal if set to 0-10V above. The user
can then check to see if the damper is at the 50%
position. Test will auto shut off after 10 minutes.
Note: These adjustments only affect the IAQEye™ VDC
output. If you are using RTUiLINK to control an air
handler the CO2 adjustments have to be made through
the RTUiLINK adjustment interface.
The IAQEye utilizes a dual beam, pressure corrected
CO2 self-calibration process so adjustment of CO2
calibration is not recommended. This adjustment should
only be used if the installer is certain an adjustment is necessary.

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8. RTUiLINK™
The RTUiLINK™ is an accessory for the IAQEye™ that
allows the CO2 signal from IAQEye in the space to be
broadcast to a receiver inside a nearby Rooftop Air
Handling Unit (RTU). The RTUiLINK™ provides a 0-
10VDC signal to a CO2 capable economizer in the RTU.
The RTUiLINK has a similar WiFi interface to the IAQEye™
that needs to be also configured.
The upper graphic to the right shows what the interface
looks like where it is not connected to an RTUiLINK™. A
later section of this manual will explain how to have a
IAQEye™ connect to a specific RTUiLINK™ by using the
RTUiLINK™ WiFi interface.
The second graphic on the right, shows the heartbeat of the
RTUiLINK, indicating that the IAQEye is connected to the
RTUiLink™.
9. Live Data
This page provides the current readings for all measured
variables of the IAQEye™. It is designed to update while
you are viewing at the interval set in the System Setup
menu item.

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10. Advanced Settings
This section allows for advanced adjustment and
diagnostics for the IAQEye™. Most users should refrain
form adjusting any of the parameters on this page without
clearly understanding the impact. If you accidently change
a value, there is an option to reset to Factory Defaults at
the bottom of this screen.
Transmitter Information
This section provides a number of details regarding the
IAQEye™ identity, hardware and software versions. This
information may be required if troubleshooting is
necessary with an AirTest Engineer.
Set Filter for CO2 Data Output
These values relate to the response characteristics of the
CO2 signal. Please contact AirTest if you feel you need to
adjust these parameters.
Actuator Control
In some cases, a user may want to directly drive an
actuator or VFD rather than input the CO2 signal into a
Economizer. Click on the radio button for Actuator, and
set the values in the boxes for the maximum setting
(Design Ventilation) and the minimum setting (Base
Ventilation) . If values are changed, press Submit to
finalize the change.
Not any adjustments to the CO2 parameters on the
IAQEye™ (with the exception of the Filter data above),
only affect the output of the CO2 analog output on board.
It does not affect CO2 parameters in remote application
like the RTUiLINK™, ICLOUDiLINK and Babel Buster.

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11. Alarm Configuration
Alarms can be set for all of the
measurement parameters of the
IAQEye™. When alarm conditions as
defined in the interface are enabled
met two things will occur:
• On IAQEye™ units with display the
lower portion of the display will
display the measured parameter in
alarm with an exclamation mark
such as CO2!. See example for
CO2 and Dew Point alarms below.
• A digital indication of the alarm will
be communicated via API to the
CLOUDiLINK™ and via UDP
Packet to the Babel Buster BACnet
gateway.
To set an alarm via the IAQEye™ WiFi interface go to the Alarm configuration menu item. Input the
desired alarm upper and lower values, activate the enable check box and press Submit.
About the Default Alarm Values
CO2: The level of 1100 ppm is generally considered a maximum value for occupied spaces equal to a
fresh air ventilation rate of 15 cfm/person when outside levels are 400 ppm. Levels higher than 1100
ppm means there is less ventilation being provided to the space.
RH: The value of 60% RH (High) and 40% RH (Low) is considered by ASHRAE to ensure the best
indoor air quality. (ASHRAE Transactions, 1985 V91 P1)
Temperature:Should be set to conditions that are considered to be outside comfort range of
occupants, at OSHA recommended levels, or at temperatures that may damage the structure.
Dew Point:ASHRAE standard 62-1 (Sec 5.10) indicates dew point levels should not exceed 60ºF in
indoor spaces during both occupied and unoccupied hours for buildings when air conditioning is
operating. For climates where significant heating is required ASHRAE Standard 90.1 (Table B1-4), has
established that indoor dew point concentrations should not exceed a 45ºF dew point. For
environments with coolers and freezers, like food stores, controlling indoor dew point to below 40ºF Td
(4.4ºC Td) will minimize condensation and fogging on cold surfaces and pooling of condensate water
on floors.

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RTUiLINK™ Installation
The RTUiLINK™ is designed to be mounted in an RTU and receive a WiFi signal from one to four
IAQEye™ transmitters in the space below, via an antenna inserted into the return air which acts as a
wave guide to propagate the signal. The graphic below shows the installation methodology. The
IAQEye™ is placed in the conditioned space below the air handler. Communication can be set up
peer-to-peer between the IAQEye™ and RTUiLINK™ or can be configured to work with and existing
2.5 gHz WiFi network. This device is best used with RTUs having a working Economizer control with a
CO2 control input. The RTUiLINK™ should be installed and powered up before the IAQEye™ Devices.
This system is designed to measure in the occupied space which is provides the most accurate and
representative reading of CO2. In contrast, return air sensing may not be accurate due to dilution form
air intakes, leakage from supply air ducts and averaging of concentrations from multiple spaces. It is
for this reason that many codes require in-space sensing.
RTUiLINK™ Wiring

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RTUiLINK™ Setup:
• Like the IAQEye™ the RTUiLINK™ has a built-in
webserver that allows access to the adjustment interface
for the device when in close proximity.
• Using the wiring instructions above power up the
RTUiLINK™.
• Open your WiFi communicating device such as a phone,
tablet or computer and go to select WiFi networks.
• You will be looking for the local WiFi network to access the
adjustment interface for the RTUiLINK™. The network will
start with RTUiLINK™ and then have 4 characters of the
RTUiLINK™ you want to access. Select this as your WiFi
network.
• Go to the web browser on your device and type in the
address 192.168.10.1 and press go. This will give you
access to the webserver in the RTUiLINK™.
• Next you will be asked for a password which is on the side
of the RTUiLINK™ unit. (You were also provided with a
second copy of the password that can be peeled off the
plastic bag that the unit came in. Use this for your
records.)
• The interface menu for the RTUiLINK™ should be visible.
• Please note that part of this setup can be done off site, say
in your shop rather than onsite. Network set up is the only
parameter that has to be done on site if you are joining a
local network in the building where the system will be
installed
• In most cases wireless device will remember the
password you have inputted for the device.
RTUiLINK™ Interface Menu
• Once you have entered the password, you should be directed
to the interface menu of the RTUiLINK™ shown to the right.
System Setup
• First pick the temperature units you would prefer.
• Under Receiver you can assign a name for this RTUiLINK™ up
to 45 characters. You could identify the RTU it is connected to,
the room the RTU serves or some other easily understood
identifier.

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System Setup: Paring IAQEye™ units to the RTUiLINK™
• In most application one IAQEye™ will be installed to
communicate to one RTUiLINK™ in an RTU. However, it
is possible to pair up to four IAQEye™ units to one
RTUiLINK™. To create an IAQEye™ link, input the 12-
character MAC address (With dashes) into the Transmitters
location MAC field (the IAQEye™ MAC address located on
the bottom edge of the IAQEye transmitter).
• There is also a notes field under the MAC address (location
Label) where you can create an identifier up to 45
characters for Each IAQEye™.
• To the right of the MAC address is a weighting value that is
applied when multiple sensors are connected to the
IAQEye™. There are two options related to weighting.
o To have the signal output based on the highest level
measured from multiple IAQEye™ units, assign a value
of 0 to each unit.
o To have the control signal weighted based on a
combination measurement of multiple units, assign
weighting values so that the total value of all units added
together is 100.
• Once all data for MAC Addresses, Labels and Weighting is inputted press Submit.
• Resetting the transmitter settings will clear out all values.
One IAQEye™ Communicating to Multiple RTUiLINK™
Units
• It is possible for the signal from one IAQEye™ to be sent to
multiple RTUs/RTUiLink™ units. To facilitate this, all
devices must be connected to the same local network.
Network selection is made in the Network Settings in this
interface where more details are provided.
CO2 Commissioning
• In this section the range and the scale for the CO2 Signal
that will be provided by the RTUiLINK™ to the Economizer.
Typically, most economizers are set to take a 0-10 VDC
signal for a 0-2000 ppm CO2 range. In some cases, the
scaling and range may be different. Check the specs for the
equipment you will be connecting to.
• If for some reason the RTUiLINK™ loses the
communication link to the IAQEye™, you can set a default
damper position that the RTU will maintain.
• Once the system is working you can initiate a test to ensure
the voltage signal from the RTUiLINK™ is actually moving
the damper on the RTU. For the damper test, insert a
percent of range value for the CO2 output and press the
start test button. Stop test after you check the damper. The test will time out after 10 minutes.

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Live Data Page
• The Live Data page provides a summary of the current
measurement of the IAQEye™ devices connected to the
RTUiLINK™. The update rate is dependent on the the
sample and broadcast rate selected when configuring the
IAQEye™.
• Even though the RTUiLINK™ is located in the RTU, it is
possible to access this information while being located in
the occupied space, making it easy to check on the status
of the system.
• A useful reported parameter that can be used is the RSSI
value which is a measure of the wireless signal strength
between the RTUiLINK™ and the IAQEye™ units connect.
The graphic below provides a key for RSSI values.
Choose A Network.
When you first go the Network page you will see that
information at the top of the page, that the device is not
connected to a network (graphic to right).
If you choose to configure the RTUiLINK™ so that it just
communicates peer to peer with 1-4 IAQEye™ units. Do not
join a network. The RTUiLINK™ will be listening for the MAC
addresses of devices that were entered into the System Setup
section. If you choose to not use a network connected to the
internet, your devices will not receiving periodic firmware
updates, your device will not be able to communicate to the CLOUDiLINK™ service, and your
IAQEye™ units will not be able to connect via the network to a BACnet network using the Babel Buster
Gateway. In this configuration the IAQEye™ units will broadcast its readings and The RTUiLINK will
listen for the messages from units with the MAC addresses identified in the System Setup section of
the RTUiLINK™.
Connecting to an internet connected network is necessary if you are utilizing the CloudiLINK™, the
Babel Buster BACnet Gateway or if you want to ensure a stronger communication signal for all AirTest
units being utilized.
A RTUiLINK™ should be set up prior to configuring the IAQEye™ units.
Shown below are four sequential captures of the Network Selection process for the RTUiLINK™.

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To set up the network you will have to know the SSID and password of the network you will be joining.
Note: the IAQEye™ and RTUiLINK™ is designed to connect only to 2.4 gHz networks.
Connecting To a WiFi Network
• To join a visible network, press the Scan for Networks button and select the network that you want to
connect to (first graphic above). For a hidden network press the Connect to Hidden Wi-Fi Network.
• Next, input the WiFi network password in the small box (second graphic above).
• If you are properly connected to the network (third graphic above) the SSID should be displayed
along with a green circle. Connection status
should indicate no error and an IP address
should be assigned by DHCP. Also make sure
the RSSI signal is good or better.
Cloud Information
This section establishes the communication frequency in seconds that is used to update a cloud-based
maintenance server that is capable of upgrading firmware if necessary. Default value is 30 seconds.
For further information contact AirTest.
Advanced
The Advanced section is designed to support troubleshooting and
special adjustments by AirTest.
• The first part of this section documents the MAC address,
firmware version and hardware versions of the RTUiLINK™ and
connected IAQEye™ units.
• The second part of this section allows for customization of
aspects of how the CO2 signal responds. It is highly recommended that users do not adjust these
variables themselves. Contact AirTest if you feel you need to adjust any of these factors.

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If you have any questions or
concerns about adjusting any of
these menu items please contact
AirTest technical support for
guidance.
Phone [phone],
[email protected]

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Using the Babel Buster BACnet Gateway (BB3-7301-AT)
This is an addendum to the user guide for the Babel Buster BB3-7301. All of the standard features of
the BB3-7301 are included in this special AirTest version of the gateway. The special features added
for AirTest sensors are outlined in this addendum. Refer to the standard user guide for instructions
regarding all of the standard features.
Link to Standard User Guide: https://csimn.com/CSI_docs/BB3-7301-UserGuide.pdf
Link to Quickstart: https://csimn.com/CSI_docs/BB3-7301-MQ-QuickStart.pdf
The special sensor features For the AirTest IAQEye are found at the Sensors tab under System. The
first page that will appear is the Sensor Data page.
The parameter data that has been received from
a sensor is displayed here. One sensor at a time
is displayed. To display a different device, change
the Sensor Device # or click the Prev/Next
buttons.
Click the Refresh button to view the most recent
data.
Each sensor typically has multiple data points,
and all data points configured for a given sensor
are displayed. The data that is to be received and
assigned to BACnet objects is defined by
Parameter Maps.

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Sensors are referenced by device number, or simply device name from the drop-down list, in the
parameter maps. The sensor's MAC address is only entered one time here on the device page. This
makes it far easier to replace a sensor - you only need to enter the new MAC address one time even if
a dozen data points are mapped.
Enter the MAC address in the format illustrated above. Give the sensor a name. This name will appear
in the device list on the Parameter Maps pages.
Source IP address is optional. If 0.0.0.0, data will be accepted from any IP address for this MAC
address. If an address is provided, then the data must come from this address before it will be
accepted.
The remaining columns are diagnostic information. Parameter maps may have an optional timeout
given such that not receiving data within this time period is flagged as a fault. Time since last receipt of
data from this sensor is listed along with a count of timeouts and overall errors (which would include
bad packet, CRC, etc). If no time is listed in the "Time since" column, then no data has ever been
received. Check the Reset box and click Update to zero the counts.
If you wish to add a new sensor with parameter maps identical to an existing sensor, you may take a
shortcut at the bottom of this page. Enter the new sensor's MAC address and unique sensor name.
Enter the sensor device number of the existing sensor whose maps should be copied. Then click Add
New. In addition to adding this sensor to the device list, a new set of parameter maps will be created
for this sensor by copying the existing sensor, and assigning new unused BACnet objects to the new
maps.

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The parameter maps are displayed in summary form on the Parameter Maps page when first arriving at
this page. To view the full detail of any one map, click on the Map # in the first column. The full detail is
illustrated on the following page. Once on the detail page, click on the Parameter Maps tab again to
return to this summary page.
It is possible to partially configure parameter maps from this page. It may be useful to assign the list of
descriptor numbers and BACnet objects here in summary form, but to complete the process, you will
need to visit the detail page for each map respectively.