PHOTOELECTRIC SAFETY BARRIERS ARGOLUX AS SERIES INSTALLATION AND MAINTENANCE MANUAL TABLE OF CONTENTS TABLE OF CONTENTS TABLE OF CONTENTS TABLE OF CONTENTS pag. 2 2 2 2 GENERAL OBSERVATIONS pag. 2 2 2 2 APPLICATIONS pag. 3 3 3 3 DESIGN AND OPERATION pag.
GENERAL OBSERVATIONS The ARGOLUX AS curtain is a multibeam optoelectronic protective device designed to secure operators working on dangerous machines in an industrial environment. The ARGOLUX AS system is made up of an emitter, a receiver and a separate control unit. The 3 units are combined to provide a type 2 fail-safe system as defined by the EN 61496-1 and prEN 61496-2 («Safety of machinery - Electro-sensitive protective system»).
The following are examples of machines where the ARGOLUX AS may be used: • Machinery for product handling such as conveyors, palletizing, collating machines; • Packaging and wrapping devices; • Automated assembly lines; • Automated warehousing. To control access all around a machine, the ARGOLUX AS curtain can be used with deflection mirrors to build a perimetric protection surrounding the dangerous area.
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The synchronisation between the emitting diodes and the receiver sensors is provided by an extra beam emitted by the receiver unit towards the emitter unit. This synchronisation beam delimits one side of the detection zone (see figure 1). Fig. 1 Fig.
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Fig. 3 Fig. 3 Fig. 3 Fig. 3 Position and dimensions of the detection zone and the protection zone. Position and dimensions of the detection zone and the protection zone. Position and dimensions of the detection zone and the protection zone. Position and dimensions of the detection zone and the protection zone.
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Argolux AS light curtain is available also in the MULTIBEAM configuration. From the optical point of view, a beam’s pitch of 172mm is the characteristic of these seven models. Due to the particular configuration of the beams (figure 4) the Due to the particular configuration of the beams (figure 4) the Due to the particular configuration of the beams (figure...
T E S T S E QU E N CE A N D CON T R OL S T E S T S E QU E N CE A N D CON T R OL S T E S T S E QU E N CE A N D CON T R OL S T E S T S E QU E N CE A N D CON T R OL S Optical scanning circuitry.
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The control unit displays a test input which must be used to generate a test sequence before each reset of the safety system or before a machine cycle if necessary. European regulations enforce the test performance before the effective reset of the system, at power up and after any intrusion into the detection field.
L E D S T A T U S I N D I CA T OR S L E D S T A T U S I N D I CA T OR S L E D S T A T U S I N D I CA T OR S L E D S T A T U S I N D I CA T OR S UNIT UNIT LED N°...
TECHNICAL FEATURES Emitter and receiver with a ø35mm resolution. Emitter and receiver with a ø35mm resolution. Emitter and receiver with a ø35mm resolution. Emitter and receiver with a ø35mm resolution. Model Model Model Model 1103 1103 1103 1103 1203 1203 1203 1203 1403...
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Emitter and receiver: MULTIBEAM models. Emitter and receiver: MULTIBEAM models. Emitter and receiver: MULTIBEAM models. Emitter and receiver: MULTIBEAM models. Model Model 1118 1118 1218 1218 1418 1418 1618 1618 Model Model 1118 1118 1218 1218 1418 1418 1618 1618 Number of beams Lens pitch Lens diameter...
DIMENSIONS (in mm) Emitters ASE and receivers ASR. Emitters ASE and receivers ASR. Emitters ASE and receivers ASR. Emitters ASE and receivers ASR. 1103* 1103* 1203* 1203* 1403* 1403* 1603* 1603* 1103* 1103* 1203* 1203* 1403* 1403* 1603* 1603* Model Model Model Model...
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LL and LH brack ets. LL and LH brack ets. LL and LH brack ets. LL and LH brack ets. Mounting pin and connectors. Mounting pin and connectors. Mounting pin and connectors. Mounting pin and connectors. Control unit AU S3. Control unit AU S3.
Deflection mirrors. Deflection mirrors. Deflection mirrors. Deflection mirrors. Model Model Model Model H H H H SP 200S SP 400S SP 600S SP 700S SP 900S 1060 SP 1100S 1230 SP 1200S 1400 SP 1400S 1575 SP 1600S 1750 Brack ets for mirrors. Brack ets for mirrors.
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Output relays are energized if no failure is detected during the test sequence. Before installing the ARGOLUX AS series barrier, make sure that: the machine or the work ing cycle is adapted to the mode of...
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The dimensions of the opening that gives access to the dangerous area and the calculated safety distance help in the choice of the right model. These characteristics must be compared to the scanning These characteristics must be compared to the scanning These characteristics must be compared to the scanning These characteristics must be compared to the scanning distance, the protection height and the different resolu...
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P OS I T I ON I N G A N D S A F E T Y D I S T A N CE S P OS I T I ON I N G A N D S A F E T Y D I S T A N CE S P OS I T I ON I N G A N D S A F E T Y D I S T A N CE S P OS I T I ON I N G A N D S A F E T Y D I S T A N CE S The emitter and the receiver unit must be installed in such a way that any...
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approach speeds of parts of the human body) European norm defines the following formula: S = K(t S = K(t S = K(t S = K(t ) + C ) + C ) + C ) + C with: S S S S : minimum safety distance between the detection field and the danger zone (in mm).
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Vertical mounting (fig. Vertical mounting (fig. Vertical mounting (fig. Vertical mounting (fig. 8). The minimum safety distance S allowed from the danger zone to the vertical detection plane should be no less than that calculated using the following formula: S = 2000(t S = 2000(t S = 2000(t S = 2000(t...
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The risk of inadvertent access should be taken into account during the risk assessment stage, but in all cases, the height H of the uppermost beam should be greater or equal to 900mm, and the height P of the lowest beam should be lower or equal to 300mm.
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MULTIBEAM models. MULTIBEAM models. MULTIBEAM models. MULTIBEAM models. The Argolux AS MULTIBEAM models shall be used only to The Argolux AS MULTIBEAM models shall be used only to The Argolux AS MULTIBEAM models shall be used only to The Argolux AS MULTIBEAM models shall be used only to detect intrusion of the whole body of a person and not parts detect intrusion of the whole body of a person and not parts detect intrusion of the whole body of a person and not parts...
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The neighbouring sets should be operated in the reverse direction with synchronisation beams in opposition as shown below (figure 11). Side-by-side assembly: A Side-by-side assembly: A Side-by-side assembly: A Side-by-side assembly: A Adjacent position of the emitters. Vertical assembly: B Vertical assembly: B Vertical assembly: B Vertical assembly: B...
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For a distance l between the emitter and the receiver, the figure 13 gives values for d. Fig. 13 Fig. 13 Fig. 13 Fig. 13 The reflective surfaces must be at a distance ≥d. d. d. d. The reflective surfaces must be at a distance The reflective surfaces must be at a distance The reflective surfaces must be at a distance Just after the installation, check the absence of any reflecting surface using...
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D E F L E CT I ON M I R R OR S D E F L E CT I ON M I R R OR S D E F L E CT I ON M I R R OR S D E F L E CT I ON M I R R OR S For the protection or control of dangerous zones with openings on several sides, deflection mirrors can be used.
E L E CT R I CA L CON N E CT I ON E L E CT R I CA L CON N E CT I ON E L E CT R I CA L CON N E CT I ON E L E CT R I CA L CON N E CT I ON Wiring should be carried out according to wiring diagram shown on page 27.
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• The interference suppressors must be connected in parallel with K1 and K2 relay coils. Instruction related to the connection cable. Instruction related to the connection cable. Instruction related to the connection cable. Instruction related to the connection cable. • For cable length longer than 50m, use cables with a ø1mm section.
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Connection diagram A: Direct use of control unit relay outputs. Connection diagram A: Direct use of control unit relay outputs. Connection diagram A: Direct use of control unit relay outputs. Connection diagram A: Direct use of control unit relay outputs. Connection diagram B: Use of additional relays K 1 and K 2.
M OU N T I N G A N D OP T I CA L A L I G N M E N T M OU N T I N G A N D OP T I CA L A L I G N M E N T M OU N T I N G A N D OP T I CA L A L I G N M E N T M OU N T I N G A N D OP T I CA L A L I G N M E N T The emitter and the receiver must be installed opposite each other.
When the optimum adjustment is achieved, rigidly fix both emitter and receiver. If the emitter and the receiver are installed on machines exposed to high vibrations, it is recommended to use antivibration dampers to keep optics aligned (see figure 16). Fig.
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With reference to figure 17: • Introduce the test rod in the detection zone and move it from top to bottom in the center of the detection zone first, then near the emitter and the receiver. • The red LED of the receiver should be permanently lit during the move of the test rod in the detection zone.
T R OU B L E S H OOT I N G T R OU B L E S H OOT I N G T R OU B L E S H OOT I N G T R OU B L E S H OOT I N G Information displayed by LED’s on the emitter, the receiver and the control unit help diagnosing malfunctions of the system.
, consequently, declines all responsabilities for any complaint due REER s.p.a. to the unrespect (even if partial) of such instructions. Features might change without notice. No part of this sheet can be reproduced without permission of REER.
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