FAAC 624 BLD User manual

624 BLD
624 BLD

1
INDEX
1...WARNINGS ..................................................................................................................................................3
2...TECHNICAL SPECIFICATIONS .......................................................................................................................3
3...LAYOUT AND COMPONENTS OF 624BLD .....................................................................................................3
3.1 Description of components ..................................................................................................................3
4...ELECTRICAL CONNECTIONS ........................................................................................................................4
4.1 J1 Terminal-board - Accessories (Fig. 2) ...........................................................................................4
4.2 Connection of relay photocells and safety devices with “N.C.” contact ............................................... 5
4.3 Connection of BUS photocells ............................................................................................................5
4.4 J2 Terminal-board - Motor, flashing lamp and fan (Fig. 2) ...............................................................6
4.5 J8 Connector - Motor capacitor (Fig. 2) ............................................................................................6
4.6 J9 Terminal-board - Power supply (Fig. 2) ..........................................................................................6
4.7 J3, J5 Rapid connectors - for opening and closing limit-switches (Fig. 2).........................................6
4.8 J6 Connector - Beam breaking sensor (Fig. 2)....................................................................................6
4.9 DS1 Frequency selector (Fig. 1) ...................................................................................................................... 6
4.10 J4 Connector - for Minidec, Decoder and RP ............................................................................................. 6
5...PROGRAMMING ..........................................................................................................................................6
5.1 1st LEVEL PROGRAMMING...................................................................................................................6
5.2 Modification of the pre-setting .........................................................................................................8
5.3 Setup and BUS system control ........................................................................................................................ 8
5.4 2nd LEVEL PROGRAMMING .................................................................................................................9
5.5 Setup for integrated Loop Detector .................................................................................................10
6...START-UP......................................................................................................................................................11
6.1 Board LEDS check............................................................................................................................... 11
6.2 Check on BUS status........................................................................................................................... 11
7...AUTOMATED SYSTEM TEST............................................................................................................................11
8...MASTER-SLAVE CONFIGURATIONS ...............................................................................................................12
9...3rd LEVEL PROGRAMMING..........................................................................................................................13
9.1 Customisation of function logic..........................................................................................................15
10.PRE-SETTING VALUES ...................................................................................................................................15
11.NOTES .........................................................................................................................................................16
12.INTERLOCK CONNECTION ...........................................................................................................................16
13.FUNCTION LOGIC TABLES ............................................................................................................................17
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2
CE DECLARATION OF CONFORMITY
Manufacturer: FAAC S.p.A.
Address: Via Calari, 10 - 40069 Zola Predosa BOLOGNA - ITALY
Declares that: 624BLD control unit
• conforms to the essential safety requirements of the following EEC directives
2006/95/EC Low Voltage Directive
2004/108/EC Electromagnetic Compatibility Directive
Additional note:
This product underwent tests in a typical uniform configuration
(all products manufactured by FAAC S.p.A.).
Bologna, 01 September 2009
The Managing Director
A. Marcellan
1) ATTENTION! To ensure the safety of people, it is important that you read
all the following instructions. Incorrect installation or incorrect use of
the product could cause serious harm to people.
2) Carefully read the instructions before beginning to install the product.
3) Do not leave packing materials (plastic, polystyrene, etc.) within reach
of children as such materials are potential sources of danger.
4) Store these instructions for future reference.
5) This product was designed and built strictly for the use indicated in this
documentation. Any other use, not expressly indicated here, could
compromise the good condition/operation of the product and/or be
a source of danger.
6) FAAC declines all liability caused by improper use or use other than that
for which the automated system was intended.
7) Do not install the equipment in an explosive atmosphere: the presence
of inflammable gas or fumes is a serious danger to safety.
8) The mechanical parts must conform to the provisions of Standards EN
12604 and EN 12605.
For non-EU countries, to obtain an adequate level of safety, the Stand-
ards mentioned above must be observed, in addition to national legal
regulations.
9) FAAC is not responsible for failure to observe Good Technique in the
construction of the closing elements to be motorised, or for any defor-
mation that may occur during use.
10) The installation must conform to Standards EN 12453 and EN 12445.
For non-EU countries, to obtain an adequate level of safety, the Stand-
ards mentioned above must be observed, in addition to national legal
regulations.
11) Before attempting any job on the system, cut out electrical power.
12) The mains power supply of the automated system must be fitted with an
all-pole switch with contact opening distance of 3 mm or greater. Use
of a 6A thermal breaker with all-pole circuit break is recommended.
13) Make sure that a differential switch with threshold of 0.03 A is fitted
upstream of the system.
14) Make sure that the earthing system is perfectly constructed and con-
nect metal parts of the closure to it.
15) The automated system is supplied with an intrinsic anti-crushing safety
device consisting of a torque control. Nevertheless, its tripping thresh-
old must be checked as specified in the Standards indicated at point
10.
16) The safety devices (EN 12978 standard) protect any danger areas
against mechanical movement Risks, such as crushing, dragging, and
shearing.
17) Use of at least one indicator-light (e.g. FAACLIGHT ) is recommended
for every system, as well as a warning sign adequately secured to the
frame structure, in addition to the devices mentioned at point “16”.
18) FAAC declines all liability as concerns safety and efficient operation of
the automated system, if system components not produced by FAAC
are used.
19) For maintenance, strictly use original parts by FAAC.
20) Do not in any way modify the components of the automated sys-
tem.
21) The installer shall supply all information concerning manual operation
of the system in case of an emergency and shall hand over to the user
the warnings handbook supplied with the product.
22) Do not allow children or adults to stay near the product while it is
operating.
23) Keep remote controls or other pulse generators away from children,
to prevent the automated system from being activated involuntarily.
24) Transit is permitted only when the automated system is idle.
25) The user must not attempt any kind of repair or direct action whatever
and contact qualified personnel only.
26) Check at least every 6 months the efficiency of the system, particularly
the efficiency of the safety devices (including, where foreseen, the
operator thrust force) and of the release devices.
27) Anything not expressly specified in these instructions is not permit-
ted.
WARNINGS FOR THE INSTALLER
GENERAL SAFETY OBLIGATIONS
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3
1. WARNINGS
Attention: Before attempting any work on the control unit (connections, maintenance), always turn off power.
- Install, upstream of the system, a differential thermal breaker with adequate tripping threshold.
- Connect the earth cable to the terminal on the J9 connector of the unit (see fig.2).
- Always separate power cables from control and safety cables (push-button, receiver, photocells, etc.). To avoid any electrical
noise, use separate sheaths or a screened cable (with the screen earthed).
CONTROL UNIT 624 BLD
3. LAYOUT AND COMPONENTS OF 624BLD
Power supply
voltage *
230 V ~ (+6% -10%) - 50/60 Hz
or
115 V
~ (+6% -10%) - 50/60 Hz
Absorbed power
7 W
Motor max. load
300 W
Power supply
for accessories
24 Vdc
Accessories max.
current
500 mA
Operating ambient
temperature
from -20°C to +55°C
Protection
fuses *
F1 = F 5A - 250V F2 = T 0,8A - 250V
or
F1 = F 10A - 120V F2 = T 0,8A - 120V
Work time
Programmable (from 0 to 4 minutes)
Pause time
Programmable (from 0 to 4 minutes)
Motor power
Programmable on 50 levels
Programming
3 programming levels for greater
flexibility of use
Rapid connector
Coupling for 5-pin Minidec board,
Decoder, Receiver RP/RP2
Programmable
outputs
4 programmable outputs
in 18 different functions
Features
Management of slow-downs,
multifunction display, BUS technology
and INTEGRATED METALLIC MASS
DETECTOR
* The power supply voltage and fuses depend on the version
purchased
2. TECHNICAL SPECIFICATIONS
3.1 DESCRIPTION OF COMPONENTS
DL SIGNALS AND PROGRAMMING DISPLAY
LED INPUT STATUS CONTROL LEDs
J1 LOW-VOLTAGE TERMINAL BOARD
J2 TERMINAL BOARD FOR CONNECTION OF MOTOR, FLASHING
LAMP AND FAN
J3 OPENING LIMIT-SWITCH CONNECTOR
J4 CONNECTOR FOR DECODER MINIDEC / RP RECEIVER
J5 CLOSING LIMIT-SWITCH CONNECTOR
J6 CONNECTOR FOR ROD BREAKING SENSOR
J8 CONNECTOR FOR MOTOR THRUST CAPACITOR
J9 TERMINAL-BOARD FOR 230 VAC POWER SUPPLY
DS1 LOOP 1 and LOOP 2 FREQUENCIES SELECTOR
F1
FUSE FOR MOTORS AND TRANSFORMER PRIMARY WINDING (F 5A)
F2 FUSE FOR LOW VOLTAGE AND ACCESSORIES (T 800mA)
FPROGRAMMING PUSH-BUTTON “F”
+PROGRAMMING PUSH-BUTTON “+”
-PROGRAMMING PUSH-BUTTON “-”
TF1 TRANSFORMER
Fig. 1
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4
4. ELECTRICAL CONNECTIONS
To connect the
photocells and
safety devices,
consult paragraph
4.2.
BLUE
MOTOR THRUST
CAPACITOR
FAN
MOTOR
BEAM
BREAKER
Fig. 2
LOOP 1 - Magnetic loop LOOP 1 (OPEN - terminals 1-2): it activates the OPENING function
LOOP 2 - Magnetic loop LOOP 2 (SAFETY/CLOSE - terminals 3-4): it activates the SAFETY/CLOSING function
OPEN - “Opening” Command (N.O. - terminal 5): this refers to any pulse generator ( e.g.: push-button) which, by closing
a contact, commands the barrier to close and/or open.
CLOSE - “Closing” Command (N.O. - terminal 6): this refers to any pulse generator (e.g.: push-button) which, by closing
a contact, commands the barrier to close.
FSW - Closing safety-devices contact (N.C. - terminal 7). The purpose of the closing safety devices is to protect the
barrier movement area during closure, by reversing motion. They are never tripped during the opening cycle. If the closing
Safety devices are engaged when the automated system is in open status, they prevent the closing movement.
If closing safety devices are not connected, jumper connect the FSW and GND terminals (fig. 6).
STOP - STOP contact (N.C. - terminal 8): this refers to any device (e.g.: push-button) which, by opening a contact, can
stop the motion of the automated system.
If stop safety devices are not connected, jumper connect the STOP and GND terminals (fig. 6).
EMERGENCY - EMERGENCY contact (N.C- terminal 9): this refers to any switch which, by being activated in emergency
state, opens the barrier and stops its movement until the contact is restored .
If emergency safety devices are not connected, jumper connect the EMERGENCY and GND terminals (fig. 6).
GND ( terminals 10-11-19) - Negative contact for feeding accessories
24 Vdc ( terminals 12-13)- Positive contact for feeding accessories
Max. load of accessories: 500 mA. To calculate absorption values, refer to the instructions for individual
accessories
OUT 1 - Output 1 GND open-collector (terminal 14): The output can be set in one of the functions described in the
2nd programming level (see par. 5.2.). Default value is FAILSAFE. Maximum load: 24 Vdc with 100 mA.
OUT 2 - Output 2 GND open-collector (terminal 15): The output can be set in one of the functions described in the
2nd programming level(see par. 5.2.). Default value is CLOSED beam. Maximum load: 24 Vdc with 100 mA.
OUT 3 - RELAY Output 3 (terminal 16-17): The output can be set in one of the functions described in the 2nd programming
level (see par. 5.2.). Default value is INDICATOR LIGHT: Maximum load: 24 Vdc or Vac with 500 mA.
To avoid endangering correct operation of the system, do not exceed the indicated power indicated in fig. 2.
OUT 4 - Output 4 open-collector +24Vdc (terminal 18): The output can be set in one of the functions described in the
2nd programming level (see par. 5.2.). The default value for ALL THE PRE-SETTINGS is BUS COMMUNICATION. Maximum
load: 24 Vdc with 100 mA.
4.1. J1 TERMINAL-BOARD - ACCESSORIES (FIG. 2)
230 V~
or 115 V~
60W max *230 V~
or 115 V~
50/60 Hz *
*230 V~ board version
or 115 V~ board version
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5
191816 17151412 1310 11896745231
OPEN A
STOP
LOOP 1
LOOP 2
LOOP 2
LOOP 1
CLOSE
FSW
EMERGENCY
OUT 1
OUT 2
OUT 4
OUT 3
GND
GND
GND
+24 V
+24 V
OUT 3
J1
The 624 BLD board envisages the connection of closing safety devices which are tripped only during the barrier closing
movement, and are therefore suitable for protecting the closing zone against the risk of impact.
If two or more safety devices (NC contacts) have to be connected, put them in series with each other as
shown in figures 3, 4, 5 under the heading “SAFE”.
4.2.CONNECTION OF RELAY PHOTOCELLS AND SAFETY DEVICES WITH “N.C.” CONTACT
Connection of 1 pair of closure photocells Connection of 2 pairs of closure photocells
Fig. 5
Fig. 3
Connection of no safety device
Fig. 6
4.3.CONNECTION OF BUS PHOTOCELLS
1st Pair of photocells 2nd Pair of photocells
Fig. 7
Photocells using BUS technology are connected to the 624 BLD control unit ALL IN PARALLEL as shown in Fig. 7 through
single power/communication line.
The BUS photocells and pulse generators do not have connection polarity.
Up to a maximum of 8 pairs of BUS photocells can be connected to the board.
The photocells are subdivided by quantity into the following groups:
Pairs of closure photocells: max 7
Pairs of photocells for OPEN pulse: max 1
Make sure that at the 2nd
programming level:
o4 =00 and P4 =no
Connection of 1 pair of closure photocells
with FAIL SAFE facility
To be set in the 2nd programming level :FS =Yand o1=00
Fig. 4
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6
RP / RP2
624BLD
J4
4.4. J2 TERMINAL-BOARD - MOTOR, FLASHING LAMP
AND FAN (FIG. 2)
M (COM-MOT1-MOT2): Motor Connection
LAMP (LAMP-COM): Flashing lamp output
FAN (FAN-COM): Fan output
4.6. J9 TERMINAL-BOARD - POWER SUPPLY (FIG. 2)
PE : Earth connection
N : Power supply 230 V~ or 115 V~( Neutral )
L : Power supply 230 V~ or 115 V~( Line )
For correct operation, the board must
be connected to the earthing conductor
present in the system. Install, upstream
of the system, a differential thermal
breaker.
4.5. J8 CONNECTOR - MOTOR CAPACITOR (FIG. 2)
Rapid connector for connecting the motor thrust capacitor.
4.7. J3, J5 RAPID CONNECTORS - FOR OPENING AND
CLOSING LIMIT-SWITCHES (FIG. 2)
Quick-fit connector for connection of the opening (J3) and
closing (J5) limit-switches.
After positioning of the BUS technology photocells, select
the address of each pair through the combination of the
DIP-SWITCHES present on each photocell.
Set THE SAME DIP-SWITCH ADDRESS
chosen on both the transmitter and the
receiver of the same pair.
Make sure that there are not two or
more pairs of photocells with the same
address
If no BUS accessory is used, leave terminals
18 and 19 free.
Table 4 shows the programming of the dip-switches present
within the transmitter and receiver of the BUS photocells.
Tab. 4 - Address of PAIRS of BUS photocells
Dip1 Dip2 Dip3 Dip4 Pair
number Type
ON OFF OFF OFF 1st pair
CLOSURE
Photocells
ON OFF OFF ON 2nd pair
ON OFF ON OFF 3rd pair
ON OFF ON ON 4th pair
ON ON OFF OFF 5th pair
ON ON OFF ON 6th pair
ON ON ON OFF 7th pair
ON ON ON ON
Single
Pair
OPEN
PULSE
DIP-SWITCH
TX
DIP-SWITCH
RX
SAME
ADDRESS
To make the installed Bus accessories
operational, perform on-board
memorisation as explained in chapter
5.3.
4.10. J4 CONNECTOR - FOR MINIDEC, DECODER AND RP
It is used for rapid connection of Minidec, Decoder and RP/
RP2 Receivers.
If you are using an RP2 twin-channel receiver, you will be able
to directly command the automated system’s OPEN and
CLOSE from a twin-channel radio control.
If using a single-channel RP type receiver, only OPEN can be
commanded.
Fit the accessory with the component side directed toward
the board interior.
Insert and remove the boards ONLY after
cutting power.
4.8. J6 CONNECTOR - BEAM BREAKING SENSOR (FIG. 2)
Quick-fit connector for connecting the beam breaking sensor
(where present). If this sensor is absent, leave the supplied
jumper in place.
4.9. DS1 FREQUENCY SELECTOR (FIG. 1)
DIP-SWITCH selector used to set a HIGH or LOW working
frequency of the vehicle loop detectors. Consult chapter
5.5.
modification of the programming
parameters is immediately effective,
whereas definitive memory-storage occurs
only on exiting programming and returning
to the view of the automated system status.
If you cut power to the unit before returning
to view the status, all the modifications made
will be lost.
You can return to viewing the status from
any point of programming at any level, by
pressing keys Fand -simultaneously.
5. PROGRAMMING
To programme the operation of the automated system, the
“PROGRAMMING” mode must be accessed.
Programming is in three parts: 1st LEVEL, 2nd LEVEL and 3rd
LEVEL.
5.1. 1ST LEVEL PROGRAMMING
To access 1st LEVEL PROGRAMMING, use push-button F:
• if you press it (and hold it down), the display shows the
name of the first function.
• if you release the push-button, the display shows the
value of the function, which can be changed with keys
+and -.
An example of a radio accessory connection
Fig. 8
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7
• if you press Fagain (and hold it down), the display shows
the name of the next function, etc.
• when you reach the last function, press the push-button
Ftoexitprogramming,and the display resumes showing
the inputs status.
1ST LEVEL PROGRAMMING
Display Function Default
dF
LOADING PARAMETERS:
00 Neutral condition
0 1 Default FAAC 1 loaded
02 Default RESERVED FOR FAAC
03 Default FAAC CITY loaded
04 Default FAAC CITY K loaded
LEAVE AT
00 IF YOU DO NOT WISH TO MAKE ANY
CHANGE TO THE PROGRAMMING.
For an explanation of the dF parameter
refer to page 8 chapter 5.2.
00
bu
BUS ACCESSORY MENU
For an explanation of this parameter refer to
page 8 chapter 5.3.
LO FUNCTION LOGICS:
A Automatic
A1 Automatic 1
ESemiautomatic
PParking
PA Parking automatic
Cn Condo
CA Condo automatic
rb Faac-City ( traffic bollard logic )
CDead-man
rRemote
Cu Custom
E
PA
PAUSE TIME:
This operates only if an automatic
logic was selected. Can be adjusted
from 0to 59 sec. in 1 second steps.
Subsequently, the display changes to
show minutes and tenths of a second
(separated by a dot) and time is adjusted
in 10 second steps, up to the maximum
value of 4.1 minutes.
e.g. if the display shows 2.5,the pause
time will be 2 min and 50 sec.
20
FO
POWER:
Adjusts motor power.
01 = minimum power
50 = maximum power
50
L1
LOOP 1:
If this function is enabled, the loop
connected to the Loop1 input will have
the OPEN function.
Y= loop1 active
no = loop1 not active
Attention: if the function is not enabled,
loop1 status will nevertheless be available
on one of the outputs, if appropriately set
(see second level programming).
no
Display Function Default
L2
LOOP 2 :
If this function is enabled, the loop
connected to Loop2 input will have the
SAFETY/CLOSE function, i.e. it will operate
as SAFETY during the closing stage, and
will command CLOSE to the board at
release.
Y= loop2 active
no = loop2 not active
Attention: if the function is not enabled,
loop2statuswill neverthelessbeavailable
on one of the outputs, if appropriately
set.
no
S1
SENSITIVITY LOOP 1
Regulates the sensitivity of the loop:
01 = minimum
10 = maximum
05
S2
SENSITIVITY LOOP 2
Regulates the sensitivity of the loop:
01 = minimum
10 = maximum
05
St
AUTOMATED SYSTEM STATUS :
Exit programming,
memory storage of data set and return to
automated system status view
.
00 Closed
01 Opening pre-flashing
02 Opening
03 Open
04 In pause
05 Closing pre-flashing
06 Closing
07 Stopped ready to close
08 Stopped ready to open
09 Emergency opening
10 Closing safety device in operation
The display of the automated system
status
St is of fundamental importance
for the operator assigned to installation/
maintenance, to distinguish the logical
processes the board performs during
movements.
If, for example, the automated system is
in CLOSED state
00 must be shown on the
display. On reaching the command OPEN,
the display will change to
01 , if pre-flashing
is enabled, or directly to
02 (the OPENING
movement), to then display
03 on reaching
the OPEN position.
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8
Example of sequence of states displayed starting from barrier
closed:
In the sequence, states 01 and 05 are not shown; these
correspond to pre-flashing at opening and at closing,
respectively.
00 Closed 02 Opening
04 Pause (if present)
03 Open
06 Closing
5.2. MODIFICATION OF THE PRE-SETTING
The modification of the dF parameter enables you to
automatically load 4 different configurations modifying all
programming values at every level with preset values.
This possibility is a convenient starting point for subsequent
rapid ‘fine tuning’ of the 624 BLD for functioning with 4
different types of installation.
4 PRE-SETTINGS may be selected:
01 Default FAAC for barriers
02 Default RESERVED FOR FAAC
03 Default for the FAAC CITY 275 H600 and H800 range
04 Default for FAAC CITY 275 H700 K
To implement loading of the values of one of the 4
pre-settings, select the required pre-setting (
01 , 02 , 03 ,
04 ) and exit 1st level programming.
EXAMPLE: selecting 01 and exiting 1st level programming, all
the FAAC default values which can be found in the 1st, 2nd
and 3rd level tables in the “Default” column are loaded. The
624 BLD is therefore configured for movement of a barrier.
THE LOADING OF A PRE-SETTING CANCELS ALL
THE MODIFICATIONS PREVIOUSLY MADE AT ANY
PROGRAMMING STEP. IF YOU DO NOT WISH TO
LOAD ANY PRE-SETTING, LEAVE THE
dF STEP
AT
00 .
The dF ,step, unlike the others, does not store
the value selected but returns to show
00
again, as standard condition.
It is therefore not possible to identify what pre-setting was
previously set.
If you do not wish to load any pre-setting, ALWAYS leave
the
dF step at value 00 and move on to the following
programming step.
Ensure that you load the desired default and
exit 1st level programming BEFORE modifying
other steps, in order to avoid deleting all the
modifications made.
To learn more about the specifications of each pre-setting,
refer to chapter 10 on page 15.
5.3. SETUP and BUS SYSTEM CONTROL
Each time you install one or more BUS accessories (as
explained in chapter 4.3) these must be stored on the
board.
Storage is performed as follows:
- enter the first programming level as explained in chapter.
5.1;
- at the
bu programming step, release programming
push-button Fand press push-button + for 1 second.
The display shows
-- for an instant and then returns to
the standard condition indicated in fig. 10. The storage
procedure is finished.
The bu programming step also has the function of displaying
the status of the BUS technology accessories. Figure 9
indicates the exact correspondence between the segments
of the display and the inputs.
Fig. 9
Segment ON = closed contact
Segment OFF = open contact
FSW CL = BUS photocells
closing
OPEN = BUS photocell
pulse generators OPEN
NOT USED
The configuration for correct operation of
the automated system should show the three
horizontal segments ON as in figure 10.
In case of engagement of the closure photocells,
the upper and lower segments switch off, leaving
the central segment on, as in figure 11.
In case of engagement of the PULSE GENERATOR
OPEN pair, the corresponding vertical segment
switches on for the engagement time of the pair,
as illustrated in figure 12.
Fig. 10
Fig. 11
Fig. 12
The PULSE GENERATOR OPEN pair of photocells, if engaged,
commands opening of the application and prevents its
closure until it is released.
If no pair of BUS photocells is present on the
system, the
bu programming step will still
show the display in figure 10.
TheBUScommunicationsystemuses a self-diagnosticfunction
able to supply reports of incorrect connection or of erroneous
configuration of the BUS accessories.
The display shows the cc signal FLASHING
when a SHORT-CIRCUIT is present along
the BUS line, as in figure 13. Check the
connections made (chapter.4.3).
The display shows the Er message
FLASHING, as in figure 14, if more than
one pair of photocells should have the
same address.
Fig. 13
Fig. 14
In this latter case, check all the addresses set on all the
photocells installed, referring to chapter 4.3.
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9
2ND LEVEL PROGRAMMING
Display
Function De-
fault
bo
MAXIMUM THRUST TORQUE:
the motor runs at maximum torque (ignoring
torque regulation) at the initial moment of
movement.
Y= Active
no = Excluded
Y
PF
PRE-FLASHING:
it permits activation of the flashing lamp for 5
secs before the start of movement.
no excluded
OC before each movement
PA at end of pause only
CL before closing
no
SC
SLOW CLOSING:
for setting the entire closing stage at slow
speed.
Y= Active
no = Excluded
no
tr
DECELERATION TIME AFTER LIMIT SWITCHES:
for setting the deceleration time (in seconds)
after the opening and closing limit switches
have operated.
Can be adjusted from 0to 10 sec. in 1 second
steps.
00 = deceleration excluded
10 = maximum deceleration
03
t
WORK TIME (time-out):
A value should be set from 5 to 10 seconds
longer than the time required for the automated
system to move from the closed position to the
open position, and vice-versa.
Can be adjusted from
0 to 59 sec. in 1 second
steps.
Subsequently, the display changes to show
minutes and tenths of a second (separated by
a dot) and time is adjusted in 10 second steps,
up to the maximum value of 4.1 minutes.
20
FS
FAIL SAFE:
Ifthisfunction is activated,it enables afunction
test of the photocells before any automated
system movement, independently of the
output used. If the test fails, the automated
system does not start the movement.
Y= Active
no = Excluded
no
5.4. 2nd LEVEL PROGRAMMING
To access 2nd LEVEL PROGRAMMING, press push-button F
and, while holding it down, press push-button +:
• if you release the +push-button, the display shows the
name of the first function.
• if you also release the Fpush-button, the display shows the
value of the function, which can be changed with keys +
and -.
• if you press the Fkey (and hold it down), the display shows
the name of the next function; if you release it, the value
is shown and can be modified with keys +and -.
• when you reach the last function, press push-button Fto
exit programming, and the display resumes showing the
inputs status.
o1
OUTPUT 1:
The output can be set to one of the following
functions:
00 FAILSAFE
01 INDICATOR LIGHT (lighted at
opening and pause, flashing at
closing and off when automated
system closed).
02 BEAM LIGHTING (output active
with beam closed and on pause,
inactive with beam open, flashing
during movement)
03 beam CLOSED
04 beam OPEN or in PAUSE, it goes off
during closing pre-flashing.
05 beam MOVING AT OPENING,
pre-flashing included.
06 beam MOVING AT CLOSING, pre-
flashing included.
07 beam STILL
08 beam in EMERGENCY status
09 LOOP1 engaged
10 LOOP2 engaged
11OPEN for 624 SLAVE
12 CLOSE for 624 SLAVE
13 beam DETACHED
14 FAAC-CITY lights
15 FAAC-CITY buzzer
16 FCA engaged
17 FCC engaged
18 interlock
00
P1
OUTPUT 1 POLARITY:
For configuring the output polarity status.
Y= N.C. polarity
no = N.O. polarity
Note: if the output is set to FAIL-SAFE ( 00 )
leave the default value no.
no
o2
OUTPUT 2:
See output 1
03
P2
OUTPUT 2 POLARITY:
See output 1 polarity
no
o3
OUTPUT 3:
See output 1
01
P3
OUTPUT 3 POLARITY:
See output 1 polarity
no
o4
OUTPUT 4 / BUS:
If set at 00 the output is dedicated to
accessories with BUS technology. Refer to
chapter 4.3 on page 5 for an explanation.
This output retains the possibility of
configuration of output 1 with the exception
of functions 11, 12which in this case have
no effect.
00
P4
OUTPUT 4 POLARITY:
For configuring the output polarity status.
Y= N.C. polarity
no = = N.O. polarity (for BUS)
no
ENGLISH

10
AS
ASSISTANCE REQUEST (coupled to the next
two functions):
If activated at the end of the count-down
(settable with the next two functions under
“Cycle programming”), it activates LAMP
output for 4 sec every 30 sec. (assistance
request). Can be useful for setting scheduled
maintenance.
Y= Active
no = Excluded
no
nc
CYCLE PROGRAMMING IN THOUSANDS:
For setting a count-down of the system
operating cycles, settable value from 0 to 99
(thousands of cycles). The displayed value is
reset as the cycles progress, interacting with
the nC value (99 nc decrementing steps
correspond to one nC decrement).
The function can be used combined with nC,
to check the use of the system and to make
use of the “Assistance request”.
00
nC
CYCLE PROGRAMMING IN HUNDREDS OF
THOUSANDS:
For setting a count-down of the system
operating cycles, settable value from 0 to
99 (hundreds of thousands of cycles). The
displayed value is reset as the cycles progress,
interacting with the nc. (1 nc decrement
corresponds to 99 nC decrementing steps).
The function can be used combined with nc,
to check the use of the system and to make
use of the “Assistance request”.
01
h1
HOLD TIME LOOP 1
For setting the presence time on loop 1. At
the end of this time the board calibrates itself
and indicates “loop free” (decimal point of
the units OFF). On switching on the board, an
automatic reset is performed.
Y= 5 minutes
no = infinite
no
h2
HOLD TIME LOOP 2
For setting the presence time on loop 2. At
the end of this time, the board calibrates itself
and indicates “loop free” (decimal point of
the tens OFF). On switching on the board, an
automatic reset is performed.
Y= 5 minutes
no = infinite
no
St
AUTOMATED SYSTEM STATUS:
Exit programming, memory storage of
data and return to gate status display (see
paragraph 5.1.).
5.5. SETUP FOR INTEGRATED LOOP DETECTOR
The 624 BLD is equipped with an integrated metallic mass
detector for induction detection of vehicles.
Features:
galvanic separation between the electronics of the detector
and of the loop
automatic alignment of the system immediately after
activation
continual resetting of frequency drifts
sensitivity independent of loop inductivity
regulation of the working frequency of the loops
message of loop engaged with LED display
loop status addressable on the OUT 1, OUT 2, OUT 3 and
OUT 4 outputs
•
•
•
•
•
•
•
Point ON = Loop ENGAGED
Point OFF = Loop DISENGAGED
Point FLASHING =
Loop NOT CONNECTED or BEING CALIBRATED
LOOP 1 LOOP 2
REGULATION OF SENSITIVITY
Regulating the sensitivity determines the variation of the
inductivity, for each channel, which a vehicle must cause to
activate the relative output of the detector.
Regulation of the sensitivity is performed separately for each
channel with the aid of the two S1 and S2 parameters at the
1st programming level. Consult chapter 5.1
REGULATION OF HOLD TIME
The retaining time count starts on engagement of the loop.
If, on expiry of this time, the loop is still engaged, a new
calibration is performed automatically where the presence
of the metallic mass on the loop no longer causes its
engagement. At the end of the new calibration, the loop is
considered “disengaged”.
The retaining time can be regulated with the aid of the two
h1and h2 parameters at the 2nd programming level.
Consult chapter 5.4
Connection:
Connect the loop detectors as indicated in figure 2 on page
4:
- Terminals 1 - 2 for LOOP 1 = loop with opening function;
- Terminals 3 - 4 for LOOP 2 = loop with closing and/or closing
safety function.
To learn more about the effect of signals originating from the
loops on the automated system, please refer to the logic
tables in chapter 12.
To enable the function of the connected loops, enter the
1st programming level and set steps L1 and L2 in Y. To
enable the function of the connected loops, enter the 1st
programming level and set steps.
The operating status of the loop detector is shown through the
use of decimal points on the display when automated system
status is displayed (step St ).
CALIBRATION
Each time the 624 BLD board is powered,
the display shows the automated system
status and the integrated loop detector
calibrates the connected loops. Therefore,
performa calibration,removingpower from
the 624 BLD for at least 5 seconds.
Calibration is shown on the display through
flashing of the two points, as in figure 15.
If one or both the magnetic loops are not installed,
the loop detector is continually calibrated without
this creating problems to the functioning of the
board. Therefore, during display of the automated
system status, one or both the decimal points will
flash constantly.
Oncecalibrationhas takenplace,the decimal points indicate
the loop status:
Fig. 15
ENGLISH

11
6. START-UP
6.1. BOARD LEDS CHECK
Fig. 16
6.2. CHECK ON BUS STATUS
Consult this paragraph if BUS photocells have been
installed, as indicated in paragraph 4.3 on page 5.
Enter 1st programming level and show the bu
programming step on the display.
This step must show three horizontal lines, confirming
that all pairs of BUS photocells are not engaged.
Refer to paragraph 5.3 on page 8 for further details
on displaying these devices.
7. AUTOMATED SYSTEM TEST
When you have finished programming, check if the system is
operating correctly.
Check in particular if power of the automated system is
adequately adjusted and if the safety devices connected to
it operate correctly.
FREQUENCY REGULATION and NEW BALANCING
The working frequency of each of the detector channels can
be regulated at two levels with the aid of the DS1 DIP- switch
(see fig.1).
DIP 1 ON = Loop 1 frequency LOW
OFF= Loop 1 frequency HIGH
DIP 2 ON = Loop 2 frequency LOW
OFF= Loop 2 frequency HIGH
On changing one of these DIPs, it is recommended that a
new calibration be performed. In case of installation of two
loops, select different frequencies for each loop.
NOTES FOR CONSTRUCTION OF THE LOOPS
The loop must be located at least 15 cm. from fixed metal
objects, at least 50 cm. from moving metal objects and not
more than 5 cm. from the road surface.
Use a normal single-core cable with a section of 1.5 mm²
(if the cable is buried directly, it must be double insulated).
Construct a loop, preferably square or rectangular, preparing a
PVC cable duct or making a track in the flooring as indicated
in figure 16 (the angles must be cut at 45° to avoid cable
breakage). Place the cable, performing the number of
windings indicated in the table. The two ends of the cable must
be intertwined (at least 20 times per metre) from the loop to the
detector. Avoid any cable splicing (if it should be necessary,
solder the wires and seal the junction with a thermo-shrinking
sheath) and keep it separate from power supply lines.
Before the definitive start-up of the 624 BLD unit, control the
activation status of the LEDs present.
These LEDs indicate the status of the board inputs and have
particular importance for the handling of the automated
system:
LED ON : CLOSED contact
LED OFF : OPEN contact
Figure 16 shows the configuration of
the standard LEDs with the automated
system CLOSED ready to open.
The Emergency inputs (DL5), STOP (DL4),
Photocells (DL3) and Pivot (DL8) are
safety inputs with N.C. (normally closed)
contacts, therefore the corresponding
LEDs are ON.
The FCA and FCC LEDs are the N.C contacts of the limit
switches which, if engaged, become open, consequently
switching off the corresponding LED:
With Automated system
CLOSED FCC ENGAGED
With Automated system
OPEN
FCA ENGAGED
Loop
Perimeter
No. of
Windings
less than 3 m 6
from 3 to 4 m 5
from 4 to 6 m 4
from 6 to 12 m 3
over 12 m 2
mm
mm
Fig. 16
ENGLISH

12
Fig. 17
8. MASTER-SLAVE CONFIGURATIONS
If installation contemplates the use of two opposing barriers to be activated at the same time on opening/ closing, one of
the connection diagrams shown below should be used, depending on the control boards used to move the barriers.
By MASTER equipment is meant the control board to which all the pulse generators and safety devices are connected.
By SLAVE equipment is meant the control board which is controlled by the MASTER through pulse inputs, while the safety inputs
are short-circuited.
3rd LEVEL
PROGRAMMING
03
=
Y
ENGLISH

13
The 3rd level programming is only used in the case of advanced customisation of the function logics already present in the
memory.
Before making changes at this level, be sure you fully understand the nature of the steps you wish to modify
and their effect on the automated system.
To access 3rd LEVEL PROGRAMMING, press push-button F and, while holding it down, press push-button + for about 10
seconds. Use of the F, +and -keys is the same as for the other two programming levels.
9. 3rd LEVEL PROGRAMMING
3rd LEVEL PROGRAMMING 10 secs
D. Function Setting
01 If you enable this function, automatic closure occurs after pause time.
Y = automatic closure
no = disables
02 If you enable this function, operation is with two different inputs: OPEN for opening and
CLOSE for closing.
Y = operation on two inputs
no = disables
03
Activation of recognition of the levels of the OPEN and CLOSE inputs (command
maintained). That is to say, the board recognises the level (for example, with OPEN
maintained and STOP pressed, on release of the latter the automated system continues
to open). If
03 is disabled, the board commands a manoeuvre only if the input is
varied.
Y = recognition of level
no = recognition of the
change in status
04
Activation of DEAD MAN opening (command kept pressed). If the OPEN command is
released, operation is stopped.
Y = enables
no = disables
05 If you enable this function, an OPEN command during opening stops the movement.
If parameter
06 is no the system is ready for opening.
If parameter 06 is Y the system is ready for closing.
Y = at opening stops movement
no = disables
06 If you enable this function, an OPEN command during opening reverses movement.
If parameters 05 and 06 are no OPEN has no effect during opening.
Y = at opening reverses
no = disables
07 If you enable this function, an OPEN command during the pause stops operation.
If parameters
07 and 08 are no OPEN recharges pause time.
Y = in pause stops movement
no = disables
08 If you enable this function, an OPEN command during the pause causes closure.
If parameters 07 and 08 are no l’OPEN recharges pause time.
Y = in pause closes
no = disables
09 If you enable this function, an OPEN command during closure, stops operation, otherwise it
reverses movement.
Y = stops
no = reverses
10 DEAD MAN closing enabled (command kept pressed). If you release the CLOSE command,
operation is stopped.
Y = enables
no = disables
11 If you enable this function, a CLOSE command has priority over OPEN, otherwise OPEN
has priority over CLOSE.
Y = enables
no = disables
12 If you enable this function, a CLOSE command commands closure when it is released.
Until CLOSE is enabled, the unit remains in closure pre-flashing.
Y = closes when released
no = closes at once
13 If you enable this function, a CLOSE command during opening stops operation, otherwise
the CLOSE command commands reversing immediately or at end of opening (also see
parameter 14 )
Y = CLOSE stops movement
no = CLOSE reverses
14 If you enable this function, and if parameter
13 is no, the CLOSE command commands
immediate closure at end of opening cycle (memory stores CLOSE). If parameters 13
and
14 are no CLOSE commands immediate closure.
Y = closes at the end of
opening
no = immediate closure
15 If you enable this function, when the system is stopped by a STOP, asubsequent OPEN
command moves in the opposite direction. If parameter
15 is no t always closes.
Y = moves in the opposite
direction
no = always closes
16 If you enable this function, during closing, the CLOSING SAFETY DEVICES stop movement
and allow resumption of movement when disengaged, otherwise they immediately rever-
se at opening.
Y = closes at disengagement
no = immediate reversing
17 If you enable this function, the CLOSING SAFETY DEVICES command closure when
disengaged
(also see parameter 18 ).
Y = closure when FSW
disengaged
no = disables
18 If you enable this function, and if parameter
17 is Y , the unit waits for the opening cycle
to end before executing the closing command supplied by the CLOSING SAFETY
DEVICES.
Y = closes at the end of
opening
no = disables
19 If you enable this function, during closing, LOOP2 stops movement and allows it to
resume at disengagement, otherwise it immediately reverses at opening.
Y = closure at disengagement
no = immediate reversing
20 If you enable this function, LOOP2 commands closing when it disengages (also see
parameter 21).
Y = closes if LOOP2 is free
no = disables
21 If you enable this function, and if parameter
20 is Y , the unit waits for the opening cycle
to end before executing the closing command supplied by LOOP2.
Y = closes at the end of opening
no = disables
22 If you enable this function, LOOP1 commands have priority over LOOP2 commands.
Y = enables
no = disables
ENGLISH

14
D. Function Setting
23 LOOP 1 commands opening and, at end of opening, closes if released (useful if a vehicle
reverses with consecutive loops).If disabled at disengagement of LOOP 1, no closure is
performed.
Y = closes if LOOP1 is free
no = disables
24 NOT USED /
25 A.D.M.A.P function
If you enable this function, the safety devices operate according to French standards.
Y = enables
no = disables
26 If you enable this function, during closure, the CLOSING SAFETY DEVICES stop movement
and, when disengaged, reverse movement, otherwise they reverse immediately.
Y = stops movement
and reverses when
disengaged
.
no = reverses immediately.
27 NO EFFECT /
A1 PRELAMPEGGIO:
Used for adjusting - in 1 sec steps - the duration of required pre-flashing, from a minimum
of
0 to a maximum of 10 seconds 05
A2 TIMEOUT FOR REVERSING AT CLOSURE:
If you enable this function, during closing, you can decide whether to reverse or stop the
movement when time out elapses (closing stroke limit not reached).
Y = reversal
no = block
A3 OPENING AT POWER UP:
In case of a power cut, when power is restored, an opening operation can be commanded
by enabling this function (only if the automated system is not closed, FCC free).
Y = opening
no = stays idle
A4
TIME FOR ENABLING FAAC CITY PRESSURE SWITCH:
This is the time after which the unit considers the signal originating from the pressure switch
as the CLOSING TRAVEL-LIMIT.
Can be adjusted from
0 to 59 sec. in 1 second steps. Subsequently, the display changes
to show minutes and tenths of a second (separated by a dot), up to a maximum value
of 4,1 minutes.
4.0
A5 DISABLING OF FAAC CITY PRESSURE SWITCH AT START OF MOVEMENT:
It is possible to disable the travel limit input command at the start of the closing manoeuvre
for a time of 0.4 secs (useful to inhibit the FAAC CITY pressure switch for thrust at rise)
Y = pressure switch
deactivated on initial thrust
no =pressure switch always
active
A6
FAAC CITY SOLENOID VALVE POWER SUPPLY CHECK (terminals 22-23):
FAAC CITY K: solenoid valve output usually not supplied with power – supplied with
power during downstroke.
FAAC CITY standard: solenoid valve output usually supplied with power – not supplied
with power during downstroke.
Y = for FAAC CITY K
no = for FAAC CITY
standard
A7
POLARITY OF OPENING TRAVEL-LIMIT STOP:
Configuration of the travel-limit stop contact
Y = NO polarity
no = NC polarity
A8
POLARITY OF CLOSING TRAVEL-LIMIT STOP:
Configuration of the travel-limit stop contact
Y = NO polarity
no = NC polarity
A9
FAAC CITY PRESSURE SWITCH ENABLE (J5):
Detection of the PRESSURE SWITCH contact as safety device during the first upstroke phase
and as limit switch after activation time of FAAC CITY pressure switch (parameter A4 ):
Y = Operation for FAAC CITY
no = Standard limit switch
operation
b0 SAFETY ONLY PRESSURE SWITCH FOR FAAC CITY (terminals 7-GND):
Recognition of PHOTOCELL contact as a safety PRESSURE SWITCH but not as travel limit for
FAAC CITY:
Y =Pressure switch operation
as safety device only
no = Standard photocell
operation
b1 HOLD CLOSE / HOLD OPEN FUNCTION DELAY:
Delay of the activation of the HOLD CLOSE / HOLD OPEN function (see parameters b3 and
b4). The count starts when the involved limit switch has been reached.
If, at the end of the set time, the limit switch is involuntarily disengaged, the HOLD CLOSE /
HOLD OPEN function is activated.
00 = HOLD CLOSE / HOLD OPEN function activated immediately
01 to 99 = minutes of count before activation of HOLD CLOSE / HOLD OPEN
30
b2 DO NOT MODIFY 30
b3
HOLD OPEN FUNCTION:
If the opening limit switch is involuntarily disengaged, the board commands
automatically a movement for 2 sec. to restore the position; if the opening
limit switch is not engaged during this period of time, the automated system
is activated max. for the operating time “t” see 2nd PROGRAMMING LEVEL:
(parameter A3 recommended on Y if parameter b3 set on Y )
Y
= enables
no = disables
b4
HOLD CLOSE FUNCTION:
If the closing limit switch is involuntarily disengaged, the board commands automatically a
movement for 2 sec. to restore the position; if the closing limit switch is not engaged during
this period of time, the automated system is activated max. for the operating time “t” see
2nd PROGRAMMING LEVEL:
Y = enables
no = disables
St
AUTOMATED SYSTEM STATUS:
Exit programming, memory storage of data and return to gate status display (see
par. 5.1.).
ENGLISH

15
Default
FAAC1 RESERVED FOR FAAC Default FAAC CITY Default FAAC CITY K
dF pre-setting 01 02 03 04
bu BUS
Lo logic EA1rbrb
PA pause 20 20 30 30
FO power 50 50 50 50
L1
loop 1 no no no no
L2 loop 2 no no no no
S1
sensitivity 05 05 05 05
S2 sensitivity 05 05 05 05
9.1. CUSTOMISATION OF FUNCTION LOGIC
The 3rd programming level values vary depending on the
logic selected at the first programming level.
The 3rd programming level is dedicated to customisation
of one of the logics selectable if non-standard behaviour of
application should be needed.
Procedure for implementing the modification of one or more
3rd programming level parameters which customise the
function of the logic set:
Select one of the basic logics most suitable for your
requirements.
Enter the 3rd programming level and modify the required
parameters.
Exit the 3rd programming level and select logic Cu.
The Cu logic activates the modifications made at the 3rd
level.
The following table contains the default parameters affecting
the function logics.
1.
2.
3.
Step A A1 E P PA Cn CA rb C
01 YYNNYNYYN
02 NNNYYYYYY
03 NNNNNNNYN
04 NNNNNNNNY
05 NNYNNNNNN
06 NNYNNNNNN
07 NNNNNNNNN
08 NNNNNNNNN
09 NNNNNNNNN
10 NNNNNNNNY
11 NNNNNNNNN
12 NNNY YNNNN
13 NNNNNNNNN
14 NNNY Y Y YNN
15 NNNNNNNNN
16 NNNY YNNNN
17 NYNNNNNNN
18 NYNNNNNNN
19 NNNY YNNNN
20 NYNYYYYNN
21 NYNYYYYNN
22 NNNNNYYNN
23 NNNY YNNNN
24 NNNNNNNNN
25 NNNNNNNNN
26 NNNNNNNNN
10. PRE-SETTING VALUES
The table below shows the values of the steps at each
programming level in relation to the pre-setting chosen
1st LEVEL
2nd LEVEL
bo boost YYYY
PF pre-flashing no CL no no
SC slow closing no no no no
tr slow-down 03 03 01 01
t time out 20 20 12 12
FS fail safe no no no no
o1
output 1 00 16 15 15
P1
polarity 1 no no no no
o2 output 2 03 17 14 14
P2 polarity 2 no no no no
o3 output 3 01 01 01 01
P3 polarity 3 n o no no no
o4 output 4 0 0 00 00 00
P4 polarity 4 n o no no no
A5 assistance n o no no no
nc cycles 1. 0 0 00 00 00
nC cycles 2. 01 01 01 01
h1
hold n o no no no
h2 hold n o no no no
3rd LEVEL
01 no Y Y Y
02 no no Y Y
03 no no Y Y
04 n o no no no
05 Ynonono
06 Ynonono
07 n o no no no
ENGLISH

16
__________________________________________________
___________________________________________________
___________________________________________________
____________________________________________________________________________________________________
___________
___________________________________________________
___________________________________________________
___________________________________________________
_______________________________________________________________________
___________________________________________________
___________________________________________________
___________________________________________________
__________________________________________________________________________________________
_________________________
__________________________________________________
191816 17151412 1310 11896745231
OPEN A
STOP
LOOP 1
LOOP 2
LOOP 2
LOOP 1
CLOSE
FSW
EMERGENCY
OUT 1
OUT 2
OUT 4
OUT 3
GND
GND
GND
+24 V
+24 V
OUT 3
J1
191816 17151412 1310 11896745231
OPEN A
STOP
LOOP 1
LOOP 2
LOOP 2
LOOP 1
CLOSE
FSW
EMERGENCY
OUT 1
OUT 2
OUT 4
OUT 3
GND
GND
GND
+24 V
+24 V
OUT 3
J1
191816 17151412 1310 11896745231
OPEN A
STOP
LOOP 1
LOOP 2
LOOP 2
LOOP 1
CLOSE
FSW
EMERGENCY
OUT 1
OUT 2
OUT 4
OUT 3
GND
GND
GND
+24 V
+24 V
OUT 3
J1
Default
FAAC1 Default FAAC2 Default FAAC CITY Default FAAC CITY K
08 no no no no
09 no no no no
10 no no no no
11 no no no no
12 no no no no
13 no no no no
14 no no no no
15 no no no no
16 no no no no
17 noYnono
18 noYnono
19 no no no no
20 noYnono
21 noYnono
22 no no no no
23 no no no no
24 no no no no
25 no no no no
26 no no no no
27 no no no no
A1 05 0 1 05 05
A2 no no no no
A3 no no no no
A4 4.0 4.0 04 04
A5 no no Y Y
A6 no no no Y
A7 no no YY
A8 no no no Y
A9 no no YY
b0 no no no no
b1 00 00 30 30
b2 30 30 30 30
b3 no no YY
b4 no no no no
11. NOTES
12. INTERLOCK CONNECTION
The interlock function controls two in-line barriers (see fig.)
so that the opening of a barrier is interlocked with the
closure of the other barrier.
The operation can be one-way or bidirectional
For in-line barriers, enable OUT1 INTERLOCK on parameter 18 (see 2nd PROGRAMMING LEVEL) on both boards and connect
them as shown in fig.18
Fig. 18
ENGLISH

17
Tab. 1/b
Tab. 1/a
LOGIC “A” PULSES
AUTOMATED SYSTEM
STATUS OPEN A CLOSE STOP FSW LOOP 1 LOOP 2
CLOSED opens and
re-closes after
pause time no effect no effect
(opening
disabled) no effect opens and
re-closes after
pause time no effect
OPENING no effect reverses
immediately at
closing
stops
operation no effect no effect no effect
OPEN IN PAUSE recharges pause
time closes stops
operation
recharges pause
time
(closing
disabled)
recharges pause
time
recharges pause
time
(closing
disabled))
CLOSING reverses
immediately at
opening no effect stops
operation
reverses
immediately at
opening
reverses
immediately at
opening
reverses
immediately at
opening
STOPPED closes closes no effect
(opening and
closing disabled)
no effect
(closing
disabled)
opens and
re-closes after
pause time
no effect
(closing
disabled)
LOGIC “A1” PULSES
AUTOMATED SYSTEM
STATUS OPEN A CLOSE STOP FSW LOOP 1 LOOP 2
CLOSED opens and
re-closes after
pause time no effect no effect
(opening
disabled) no effect opens and
re-closes after
pause time no effect
OPENING no effect reverses
immediately at
closing
stops
operation
closes
immediately at
end of opening no effect closes
immediately at
end of opening
OPEN IN PAUSE recharges pause
time closes stops
operation closes recharges pause
time closes
CLOSING reverses
immediately at
opening no effect stops
operation
reverses
immediately at
opening
reverses
immediately at
opening, closes at
pause end
reverses
immediately
at opening,
re-closes when
opening finished
STOPPED closes closes no effect
(opening and
closing disabled)
no effect
(closing
disabled)
opens and
re-closes after
pause time
no effect
(closing
disabled)
LOGIC “E” PULSES
AUTOMATED SYSTEM
STATUS OPEN A CLOSE STOP FSW LOOP 1 LOOP 2
CLOSED opens no effect no effect
(opening
disabled) no effect opens no effect
OPENING stops
operation
reverses
immediately at
closing
stops
operation no effect no effect no effect
OPEN closes closes no effect
(closing
disabled)
no effect
(closing
disabled) closes no effect
(closing
disabled)
CLOSING reverses
immediately at
opening no effect stops
operation
reverses
immediately at
opening
reverses
immediately at
opening
reverses
immediately at
opening
STOPPED closes closes no effect
(opening and
closing disabled)
no effect
(closing
disabled) opens no effect
(closing
disabled)
ÂIn brackets the effects on the other active pulse inputs
13. FUNCTION LOGIC TABLES
Tab. 1/c
ENGLISH

18
Tab. 1/d
Tab. 1/e
Tab. 1/f
LOGIC “P” PULSES
AUTOMATED SYSTEM
STATUS OPEN A CLOSE STOP FSW LOOP 1 LOOP 2
CLOSED opens no effect no effect
(opening
disabled)
no effect opens and at end
of opening closes
if disengaged no effect
OPENING no effect closes
immediately at
end of opening
stops
operation no effect no effect closes
immediately at
end of opening
OPEN no effect
(closing
disabled) closes no effect
(closing
disabled)
no effect
(closing
disabled) prevents closure closes
CLOSING reverses
immediately at
opening no effect stops
operation
stops and
continues to
close on release
reverses
immediately at
opening and
closes at end
of opening if
disengaged
stops and
continues to
close on release
STOPPED opens closes no effect
(opening and
closing disabled)
no effect
(closing
disabled)
opens and at end
of opening closes
if disengaged
no effect
(closing
disabled)
ÂIn brackets the effects on the other active pulse inputs
LOGIC “PA” PULSES
AUTOMATED SYSTEM
STATUS OPEN A CLOSE STOP FSW LOOP 1 LOOP 2
CLOSED opens and
re-closes after
pause time no effect no effect
(opening
disabled) no effect opens and at end
of opening closes
if disengaged no effect
OPENING no effect closes
immediately at
end of opening
stops
operation no effect no effect closes
immediately at
end of opening
OPEN IN PAUSE recharges pause
time closes stops
operation
recharges pause
time
(closing
disabled)
recharges pause
time closes
CLOSING reverses
immediately at
opening no effect stops
operation
stops and
continues to
close on release
reverses
immediately at
opening and closes
at end of opening if
disengaged
stops and
continues to
close on release
STOPPED opens and
re-closes after
pause time closes no effect
(opening and
closing disabled)
no effect
(closing
disabled)
opens and at end
of opening closes
if disengaged
no effect
(closing
disabled)
LOGIC “Cn” PULSES
AUTOMATED SYSTEM
STATUS OPEN A CLOSE STOP FSW LOOP 1 LOOP 2
CLOSED opens no effect no effect
(opening
disabled) no effect opens no effect
OPENING no effect closes
immediately at
end of opening
stops
operation no effect no effect closes
immediately at
end of opening
OPEN no effect
(closing
disabled) closes no effect
(closing
disabled)
no effect
(closing
disabled) no effect closes
CLOSING reverses
immediately at
opening no effect stops
operation
reverses at
opening and
closes after
pause time
reverses
immediately at
opening
reverses
immediately at
opening
STOPPED opens closes no effect
(opening and
closing disabled)
no effect
(closing
disabled) opens no effect
(closing
disabled)
ENGLISH

19
Tab. 1/i
Tab. 1/g
Tab. 1/h
LOGIC “CA” PULSES
AUTOMATED SYSTEM
STATUS OPEN A CLOSE STOP FSW LOOP 1 LOOP 2
CLOSED opens and
re-closes after
pause time no effect no effect
(opening
disabled) no effect opens and
re-closes after
pause time no effect
OPENING no effect closes
immediately at
end of opening
stops
operation no effect no effect closes
immediately at
end of opening
OPEN IN PAUSE recharges pause
time closes stops
operation
recharges pause
time
(closing
disabled)
recharges pause
time closes
CLOSING reverses
immediately at
opening no effect stops
operation
reverses at
opening and
closes after pause
time
reverses
immediately at
opening
reverses
immediately at
opening
STOPPED opens and
re-closes after
pause time closes no effect
(opening and
closing disabled)
no effect
(closing
disabled)
opens and
re-closes after
pause time
no effect
(closing
disabled)
LOGIC “rb” PULSES
AUTOMATED SYSTEM
STATUS OPEN A CLOSE STOP FSW LOOP 1 LOOP 2
CLOSED opens and
re-closes after
pause time no effect no effect
(opening
disabled) no effect opens and
re-closes after
pause time no effect
OPENING no effect reverses
immediately at
closing
stops
operation no effect no effect no effect
OPEN IN PAUSE recharges pause
time closes stops
operation
recharges pause
time
(closing
disabled)
recharges pause
time
recharges pause
time
(closing
disabled)
CLOSING reverses
immediately at
opening no effect stops
operation
reverses
immediately at
opening
reverses
immediately at
opening
reverses
immediately at
opening
STOPPED opens and
re-closes after
pause time closes no effect
(opening and
closing disabled)
no effect
(closing
disabled)
opens and
re-closes after
pause time
no effect
(closing
disabled)
ÂIn brackets the effects on the other active pulse inputs
LOGIC “C” MAINTAINED COMMANDS PULSES
AUTOMATED SYSTEM
STATUS OPEN A CLOSE STOP FSW LOOP 1 LOOP 2
CLOSED opens no effect no effect
(opening
disabled) no effect no effect no effect
OPENING / no effect stops
operation no effect no effect no effect
OPEN no effect
(closing
disabled) closes stops
operation no effect no effect
(closing
disabled)
no effect
(closing
disabled)
CLOSING reverses
immediately at
opening /stops
operation Stops operation stops operation stops operation
STOPPED opens closes no effect
(opening and
closing disabled)
no effect
(closing
disabled)
no effect
(closing
disabled)
no effect
(closing
disabled)
ENGLISH