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Diagram showing a room layout with a motion sensor installed in a corner. Key elements include: a ceiling fan, a window, a chair, and a door. Distances are marked: 30 cm (12") clearance from objects in front of the sensor, and mounting heights between 2.1-2.7 m (7'-9') or specifically 2.3 m (7'6") for approved installation. Areas marked with asterisks indicate zones to 'Keep Clear' of obstructions. A symbol of a cat with a cross through it indicates 'Not for use in applications with pets'.
Mounting Location Guidelines:
The maximum range is obtained at a mounting height of 2.3m (7' 6").
Allow a clear line-of-sight to all areas to protect.
Avoid mounting anything within 30cm (12") in front of the sensor.
Do not directly face windows.
Avoid close proximity to moving machinery, fluorescent lights, and heating/cooling sources.
Not for use in applications with pets.
2 Open the Sensor
Illustration demonstrating how to open the sensor. Step 1 shows an arrow pointing to an unlock symbol on the sensor. Step 2 shows pressing firmly on the housing latch. Step 3 shows gently separating the front and rear housing.
Turn the arrow to point to the Unlock symbol.
Press firmly on housing latch.
Gently separate the front and rear housing.
3 Mount the Sensor
Diagram illustrating two mounting options: 'A' for wall mounting and 'B' for corner mounting. Both show the use of 3.5 mm x 30 mm (#6 x 1 1/4") screws (not included). The wall mounting option shows screws directly into the wall. The corner mounting option shows the bracket fitting into a corner. An exploded view of the sensor's rear tamper plate and mounting holes is also shown, emphasizing that the tamper plate must be mounted to a stud, solid wood, or with a robust wall anchor.
[A] = Wall mounting holes.
[B] = Corner mounting holes.
The rear tamper plate MUST be mounted to a stud, solid wood, or with a robust wall anchor.
4 Sensor Components and Settings
EOL Settings
Detailed view of the sensor's internal components, including DIP switches for EOL (End-of-Line) settings for Alarm, Tamper, and AM/Fault relays. Each relay has multiple resistance options (2.2, 4.7, 5.6 kOhm) and an 'OFF' setting. There are also DIP switches for 'Anti-Mask Enabled/Disabled' and 'Look Down Enabled/Disabled'. A 'Microwave Range Adjustment' knob is shown with 'MAX' and 'MIN' settings for MW SENSITIVITY. A 'PULL TO DISABLE LOOK DOWN' tab is also visible.
EOL Settings
EOL kOhm
Alarm [RA]
Tamper [RT]
AM/Fault [RF]
ON
1
2.2
4.7
5.6
1
2.2
4.7
5.6
2.2
3
Anti-Mask LED Settings
Setting
AM LED
Anti-Mask Enabled
ON
Anti-Mask Disabled
OFF
Microwave Range Adjustment: Knob with 'MAX' and 'MIN' settings for MW SENSITIVITY. Note: Set at minimum, the sensor range is reduced to 5m.
Look Down Settings: Illustrated with two states: 'Look Down Disabled' (sensor beam directed forward) and 'Look Down Enabled' (sensor beam directed downwards). The 'Look Down Enabled' setting is the factory default.
5 Wire the Sensor
Diagram showing the sensor's wiring terminals. The sensor has a terminal block with connections for LED, TBL (Tamper), T (Trouble), C (Common), NC (Normally Closed), V- (Negative Voltage), and V+ (Positive Voltage). The diagram also shows wire stripping (0.2-0.52mm²) and connecting wires to the terminal block.
If not using the integrated EOL resistors, set all switches to OFF.
If using the integrated EOL resistors:
Connect the sensor to the panel (see wiring diagrams below).
Set the appropriate tamper, alarm and Anti-mask/ [RF] DIP switches to ON (see Step 4 on page 2).
Notes:
Consult the Control Panel manual to determine proper EOL selection.
The Alarm, Tamper and Trouble/anti-mask EOL settings must each only have one switch ON.
The EOL values should be set at the same time.
Wiring Examples
Two wiring diagrams illustrating sensor connection to a control panel. The first diagram shows a single-loop configuration for Alarm, Tamper, and Trouble/Anti-Mask, with EOL resistors for RA, RT, and RF. The second diagram shows a two-loop configuration, separating Z1 (Common) and Z2, with EOL resistors for RA, RT, and RF. Both diagrams show connections to LED, TBL, T, C, NC, V-, V+.
Alarm, Tamper and Trouble/Anti-Mask configured to one loop.
EOL Settings (One Loop)
EOL kOhm
RA
RT
RF
ON
1
2.2
4.7
5.6
1
2.2
4.7
5.6
2.2
3
Alarm, Tamper and Trouble/Anti-Mask configured to two loops.
EOL Settings (Two Loops)
EOL kOhm
RA
RT
RF
ON
1
2.2
4.7
5.6
1
2.2
4.7
5.6
2.2
3
RA = Alarm EOL resistor
RT = Tamper EOL resistor
RF = Anti-Mask EOL resistor
W1 = 1 and 2 loop connection resistor.
6 Walk Test the Sensor and Adjust as Needed
Diagram illustrating the walk test procedure. A person walks through the detection area, which is shown as a cone extending from the sensor. A timer indicates '30 sec'. The diagram also shows the Microwave Sensitivity adjustment knob with 'MAX' and 'MIN' settings, and an LED indicator panel.
Close the sensor and apply power to the sensor. Initialization is complete when the LED stops flashing slowly (about 30 seconds).
Walk through the detection area and observe the LED.
Adjust the microwave range as necessary to meet installation requirements.
Walk test mode is active for 10 minutes, then automatically exits test mode, disables the LED and enters normal operation mode. For an additional 10 minute walk test, enable walk test mode again with the flashlight feature (see the following page).
Notes:
During power up and walk test modes the LED is active regardless of the LED Enable/Disable DIP switch setting.
When the microwave sensitivity is set to minimum, the sensor range is reduced to 5m.
LED Indicators during Walk Test
LED
Power Up
Walk Test [10 min.]
Normal
Trouble
Anti-Mask
Fault
Anti-Mask
Red
Slow Blink
ON Alarm
ON Alarm
Fast Blink
OFF
OFF
Yellow
OFF
ON Microwave
OFF
OFF
Fast Blink
OFF
Green
OFF
ON PIR
OFF
OFF
OFF
Flashlight Feature:
Illustration showing a person holding a flashlight, aiming its beam at the sensor's IR window from a distance of less than 1.2m (4'). The diagram indicates swinging the light beam past the sensor IR window 3-5 times, holding the beam on the window for 0.5 second each pass.
Use a flashlight with a bright light beam, and stand within 1.2 m (4') of the sensor.
Swing the light beam past the sensor IR window 3-5 times, holding the beam on the window for 0.5 second each pass.
The flashlight feature is only available for the first 24 hours after the first power up.
7 Detection Patterns
Two diagrams illustrating the sensor's detection patterns. The 'Top View' shows a fan-shaped pattern extending up to 16m (53') in width and 12m (40') in depth, with various zones marked. The 'Side View' shows the vertical detection pattern, indicating different zones (A, B, C, D) at various heights and distances from the sensor.
Top View:
A fan-shaped detection pattern extending up to 12m (40') in depth and 16m (53') in width, showing coverage across all zones.
Side View:
Vertical detection pattern showing coverage from 2.3m (7'6") mounting height. Zones are defined as follows:
Detection Zones
Zone
Description
A
Look-down
B
Lower
C
Intermediate
D
Long
Remote LED Enable (LED Input)
Diagram showing the LED DIP switch (switch 2) and its ON/OFF positions, indicating how it affects the LED input terminal.
The LED input terminal allows the LED to be remotely enabled. To use this feature, the LED DIP switch (switch 2) must be OFF, allowing the LED to operate based on the voltage level connected to the LED Input (see Wiring Details).
Remote LED Enable Settings
Switch 2
LED Input
LED Operation
OFF
High (+12 V)
Enabled
OFF
Low (0 V)
Disabled
ON
Low (0 V) or High (+12 V)
Enabled
Relay Operation
Sensor Status and Relay Operation
Normal
Intrusion
Trouble¹
Mask²
Alarm Relay
Closed
Open
Closed
Open
Closed
Open
Closed
Open
Trouble Relay³
Closed
Closed
Open
Open
Open
Open
Open
Open
¹ For information on Trouble conditions, see the Troubleshooting section.
² In a Mask condition, the Alarm and Trouble relays will activate simultaneously, and remain open until the condition has been cleared.
³ In a Trouble condition, the Trouble relay will latch open until the Trouble condition has been cleared.
Mask Condition
Normal Anti-Mask Condition
The sensor uses Active Infrared (AIR) technology to detect masking. The sensor signals a mask condition when a variety of materials and reflective objects are placed within 50mm (2 inches) in front of the sensor. To avoid false mask alarms, follow the mounting guidelines shown in Step 1.
Clearing an Anti-Mask Condition
When most masking materials or objects are removed, the anti-mask condition will be cleared after several seconds. When the cause of the anti-mask condition is any type of spray or paint coating applied to the window, the window must be replaced before the anti-mask condition can be cleared. After replacing the window, perform a walk-test on the sensor.
Troubleshooting
Troubleshooting LED Indicators
LED
Normal
Mask¹
Trouble*
Low Voltage²
Self-Test Failure³
Red
Closed
Open
Open
Open
Yellow
Off
Off
Flashing
Off
Green
Off
Off
Off
Off
*Trouble Conditions:
¹ Mask condition: Sensor IR window is blocked or masked.
² Low Voltage: The sensor is disabled. [Note: If voltage drops below 5V, both Alarm and Trouble relays open.]
³ Self-Test Failure conditions:
Microwave supervision failure: The sensor is operating in PIR mode only.
PIR self-test failure: The sensor is disabled.
Temperature compensation failure: The temperature compensation is disabled.
Depending on the Trouble condition, take the following corrective actions:
Verify the sensor is not blocked or masked.
Verify the power supply is sufficient (at least 9V at the sensor).
Note: The accessories are not covered by certifications.
Approval Listings
CE Mark: EN50131-2-4:2008, Security Grade 3, Environmental Class II. Suitable for connection to an EN 60950 Class II Limited Power Source.
Note: In EN 50131-2-4 compliant installations, mount the sensor at 2.3m, do not use only the right side corner mounting holes, enable look down, set the microwave sensitivity to maximum and lock the sensor housing with the cover lock (see "[EN]" where noted in Steps 1-4).
Important: The sensor should be tested at least once each year.
NF & A2P Certification: NF&A2P 3 boucliers (référentiel NF324-H58) et conforme aux normes EN50131-2-4 et RTC50131-2-4; IP30 IK04.
Honeywell DUAL TEC® Motion Sensor with Anti-Mask Installation Guide Discover the Honeywell DT8016AF4 and DT8016AF5 DUAL TEC® Motion Sensors with Anti-Mask, offering advanced security features for professional installations. This guide covers installation, wiring, EOL settings, walk testing, and coverage patterns for optimal performance and compliance with EN50131-2-4 standards.
Honeywell DT8016AF4 DUAL TEC Motion Sensor with Anti-Mask The Honeywell DT8016AF4 DUAL TEC® Motion Sensor with Anti-Mask provides reliable, high-security protection for commercial environments. Featuring patented DualCore™ signal processing, integrated EOL resistors, anti-mask technology, and X-Band microwave, it ensures superior false alarm immunity and extensive detection coverage. Ideal for EN Grade 3 installations, this sensor offers quick plug-in installation, walk test, mirror optics, and patented solutions for enhanced reliability and ease of use.
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