BEA 10MATRIX Manual Do Utilizador

75.1046.04   EN  20080505 

 

 

            

 

 

Page 3 of 5

      I.  THE 3 CONFIGURATIONS

 

A.  Configuration A:  Single Loop Detector (MATRIX-S)

 

B.  Configuration B:  Dual Loop Detector in Independent Mode with Dipswitch #10 OFF (MATRIX-D)

 

C.  Configuration C:  Dual Loop Detector in Combined Mode with Dipswitch #10 ON (MATRIX-D)

      II.  POTENTIOMETERS

 

A Potentiometer for Adjustment of the Maximum Duration of a

 

Presence Detection:  from 1 min to Infinity (See PRESENCE TIME)

 

A Potentiometer for Adjustment of the Linear Sensitivity (   f)

 

for the Loop A:  from 0.005% to 0.5% (See SENSITIVITY) 

 

A Potentiometer for Adjustment of the Linear Sensitivity (   f)

 

for the Loop B:  from 0.005% to 0.5% (See SENSITIVITY)

      III.  RELAY CONFIGURATION (DIPSWITCH #3)

A 10 position dip switch is located on the front of the Matrix single detector.  Dip switch 3, 5, 6, 7 and 8 configure the relay, while dip switch 9

controls the duration of the pulse when the Matrix is configured for pulse operation, (as opposed to presence).  Configurations are as follows:

 
DIPSWITCH 3:

OFF= FAIL-SECURE MODE Relay is NOT energized when power is applied.  Relay is energized upon detection only.  In this mode, the NO 

circuit is open, and the NC circuit is closed.  Thus, if a closed circuit is required upon detection, one must use the NO and COM terminals 

since they would close upon detection.  When the Matrix is NOT powered, it is in the same state as it would be for non-detection.

ON = FAIL-SAFE MODE Relay is energized as soon as power is applied and de-energizes upon detection or power loss.  In this mode, upon 

powering the detector, the NO circuit becomes closed, and the NC circuit becomes open.  Thus, if a closed circuit is required upon detection, 
one must use the NC and COM terminals, since they would now be OPEN during non-detection, and would close upon detection.  When the 

Matrix is NOT powered, it is in the same state as it would be for detection.

Single loop

Dual loop in independent mode

Dual loop in combined mode

High (loop A) 

Low (loop A) 

 [High –30%] 

High (loop A) 

Low (loop A) 

 [High –30%] 

See next table 

High (loop B) 

Low (loop B) 

[High –30%] 

High (loop B) 

Low (loop B) 

[High –30%] 

Active mode 

Passive mode 

Active mode 

Passive mode 

Active mode 

Passive mode 

ASB OFF 

ASB ON 

ASB OFF 

ASB ON 

ASB OFF 

ASB ON 

Relay A : 

Presence on 

loop A 

Relay A : 

Pulse on loop

Relay A : 

Presence on loop A 

Relay A : 

Pulse on loop A 

Not used 

Not used 

Relay A : 

Pulse on loop 

A

entry 

Relay A : 

Pulse on loop A 

exit

Relay A : 

Pulse on loop A 

entry 

Relay A : 

Pulse on loop A 

Exit 

Relay B : 

Non-Directional

mode

Relay B: 

Directional AB

mode

Relay B : 

Presence on 

loop A 

Relay B : 

Pulse on loop A 

Relay B : 

Presence on loop B 

Relay B : 

Pulse on loop B 

Relay B : 

Pulse on loop B 

Relay B : 

Pulse on loop A 

Relay B : 

Pulse on loop 

A

entry 

Relay B : 

Pulse on loop A 

exit

Relay B : 

Pulse on loop B 

entry 

Relay B : 

Pulse on loop B 

exit

Relay B : 

Pulse on loop entry 

Relay B : 

Pulse on loop exit

100 ms 

500 ms 

100 ms 

500 ms 

100 ms 

500 ms 

Not used 

Not used 

Independent 

Combined mode 

Independent 

Combined mode 

Δ

Δ

PRESENCE TIME

SENSITIVITY

The COM and NO terminals are OPEN. 

COM and NC terminals are CLOSED. 

The relay is de-energized. 

The COM and NO terminals are CLOSED. 

COM and NC terminals are OPEN. 

The relay is energized. 

The COM and NO terminals are CLOSED. 

COM and NC terminals are OPEN. 

The relay is energized. 

The COM and NO terminals are OPEN. 

COM and NC terminals are CLOSED. 

The relay is de-energized. 

The COM and NO terminals are OPEN. 

COM and NC terminals are CLOSED 

The relay is de-energized. 

The COM and NO terminals are OPEN. 

COM and NC terminals are CLOSED. 

The relay is de-energized. 

Same

Same