3 µ 60mm GM526 ª Ax/i/sp/fl1616a_A4 Edition 07.97 Supersedes AX/i/sp/fl 1616 4 ø3,2 SW4 SW5 ON ON OFF ON ON OFF low OFF OFF Copyright -- Details as per general conditions of supply, 1997 min. 6 F Operating radius Wirkradius action r = Rayon d'azione Raggio d' Radio de acción Aanspreekstraal Coverage area Wirkbereich efficacité F = Domaine d' Campo d' azione Campo de actuación Aanspreekgebied 1 Small safe made in single steel layer (6...12mm thickness) Kleiner Tresor in einfacher Stahlausführung (6...12mm Materialstärke) Petit coffre-fort en version acier simple épaisseur (épaisseur 6...12mm) Piccola cassaforte in lamiera di acciaio semplice (spessore 6...12mm) Caja de seguridad pequeña de chapa de acero simple (grosor 6...12mm) Kluisje gemaakt van enkele staalplaat (6...12mm materiaaldikte) 0.4m · 0.4m · 0.4m = 0.065m3 5 6 1 detector 1 Melder 1 détecteur 1 rivelatore 1 detector 1 detektor 7 8 Solid metal cases (2...6mm thickness) Solide Stahlschränke (2...6mm Materialstärke) Armoires en acier massif (épaisseur 2...6mm) Casse di metallo solido (spessore 2...6mm) Cofre de metal macizo (grosor 2...6mm) Solide stale kasten (2...6mm materiaaldikte) 0.75m · 0.75m · 0.75m = 0.42m3 or any other size £0.5m3 oder eine beliebige andere Grösse £0,5m3 ou toute autre dimension £0,5m3 o altre dimensioni £0,5m3 o cualquier oltra dimensión £0,5m3 of een willekeurig ander lichaam £0,5m3 1.5m 1.5m 9 10 1 detector 1 Melder 1 détecteur 1 rivelatore 1 detector 1 detektor DIP switches DIP-Schalter Interrupteurs DIP SW1 -- SW5 Interrutori DIP Conmutadores DIP DIP-schakelaars 1.0m · 1.0m · 1.0m = 1.0m3 or any other size £1.0m3 oder eine beliebige andere Grösse £1,0m3 ou toute autre dimension £1,0m3 o altre dimensioni £1,0m3 o cualquier oltra dimensión £1,0m3 of een willekeurig ander lichaam £1,0m3 M4 Shock high SW1 SW2 ON OFF ON ON ON OFF Response SW3 time standard delayed ON OFF Sensitivity high low OFF OFF 1.5m 1.0m 1.5m 2 detectors 2 rivelatori 2 Melder 2 detectores 2 détecteurs 2 detektoren 2 11 Downloaded from: - http://www.guardianalarms.net SW1 -- SW5 ON OFF Cover switch Deckelkontakt Contact de couvercle Contatto del coperchio Interruptor de la tapa Sabotage kontakt 12 +5V 180k IC * 0V <1.5k 9.4k 9.4k 20R ALARM RELAY COM AL.O 1 0V 2 DC 7...16V 34 REMOTE SPARE 9 10 11 12 14 15 TEST PT EL.ALARM OUTPUT COVER SWITCH in energised (non-alarm) Relais in aufgezogenem Zustand (kein Alarm) gezeichnet * Relay showndessinée à l'état attiré (pascondition Le relais est d' alarme) 13 Il relè è rappresentato in stato eccitato (nessun allarme) El relé ha sido dibujado en estado excitado (sin alarma) Relais in opgetrokken toestand (geen alarm) getekend Option GMXC2 µ 5mm 14 Seismic detector GM526 Installation Application The seismic detector GM526 provides reliable protection against attack with explosives and any known tools to open solid metal cases. Operation Cutting steel gives rise to mass acceleration. This creates mechanical oscillations which are transmitted as structure-borne sound. The sensor of the seismic detector, which is connected to the object to be monitored, picks up these oscillations and converts them into electrical signals. The detector electronics analyses the signals in a selected frequency range typical for break-in tools, and triggers an alarm via a relay contact. Adjustable detection sensitivity and selectable response time allow the GM525 to be used for all known monitoring applications, such as -- ticket machines, -- consumer automates, -- phone automates, -- small hotel room safes (£0.065m3) with single layer steel case (for all other larger safes use GM530 or GM560). Coverage area fig. 1 + 2 The coverage area is designated as the surface of a mechanical obstacle which is monitored by a detector. The coverage area is highly dependent on the material of the object to be monitored. Practical experience has shown that the operating radius for steel is «r» = 1.5m (fig. 1). Note: Joints between two materials always damp the structure-borne noise transmission, therfore not recommended on standard multilayer safes. Opening the detector fig. 3 The GM526 detector is provided with a double housing. This complicated two-chamber encapsulation provides the detector with extremely good shielding from electromagnetic interference and from accidental or intentional damage. 1. Unscrew the loss-proof front screw and lift off the metal cover. The seismic sensor is now exposed. 2. Use the two pre-assembled M4x8mm Philips head screws provided in order to fix the detector. Direct mounting on steel fig. 4 to 6 The detector can be installed directly on steel plates with a smooth surface. Ensure that any residual paint between the steel surface and the seismic sensor is completely removed and the mounting surface is plan. If this is not possible, use mounting plate GMXP. 1. Remove residual paint from sensor installation site (fig. 4). 2. Stick on drilling template and centerpunch drill holes (fig. 5). 3. Drill only the two marked holes of 3.2mm dia. and tap M4 thread at least 6mm deep. Deburr threaded holes (fig. 6). 4. Mount detector. Do not use silicon grease between sensor and object! Indirect installation with mounting plate GMXP fig. 7 to 10 In the case of uneven or hardened steel plates, weld on mounting plate GMXP. 1. Remove residual paint from the welding area (fig. 7). 2. Weld mounting plate in four fixing points. Ensure correct positioning (fig. 9). The welding symbol must be visible on the front of the mounting plate (fig. 8). 3. Weld along surfaces indicated. Tap off slag and remove weld spatter from the plate surface (fig. 10). 4. Mount detector. Programming fig. 11 + 12 SW = DIP switches for the following settings. After the detector housing has been opened, use the DIP switches to select the respective settings. Mode SW1 SW2 SW3 SW4 SW5 Shock Response time Sensitivity ON OFF SW1 and SW2 Shock settings Individual setting for normal or exposed applications. Shock settings for normal applications light, exposed applications exposed applications heavy, exposed applications low high SW1 ON OFF ON OFF SW2 ON ON OFF OFF SW3 Response time fig. 11 Standard: Normal response time for standard applications. Delayed: Double response time to delay any interference produced by automatic cash dispensing mechanisms or heavy functional noise. SW4 and SW5 Sensitivity setting fig. 11 Select the sensitivity setting to suit the application, the material and the object with the associated interference. Important: The detection radius will decrease as sensitivity is reduced. Important: During commissioning, be sure to check for function-related noise (see " Commissioning" ). Settings recommended for SW3, SW4 and SW5 Objects with minimum interference light interference function-related noise heavy function-related noise Response time Sensitivity SW3 ON ON OFF OFF SW4 high A ON B OFF SW5 ON ON OFF OFF C ON low D OFF Remote controlled sensitivity reduction fig. 13 An additional feature of this detector is a sensitivity reduction input at terminal 3 (Remote) which can be activated from distance if required. Using a LOW signal, the detector is reduced to about 1/5 of the sensitivity setting for as long as there is heavy functional noise (coins!) by means of a contact during cash dispensing. GMXC2 Conduit connection sleeve fig. 14 The function of the GMXC2 conduit connection sleeve is to ensure fixed and secure connection of surface-mounted conduits of an outside diameter of up to 16mm. Smaller-size surface-mounted conduits may require fitting of an appropriate transition sleeve of a maximum outside diameter of 16mm. To fit the GMXC2 conduit connection sleeve, proceed as follows: 1. Route the surface-mounted conduit to within about 5mm of the detector housing and fit the conduit connection sleeve onto the surfacemounted conduit. 2. Wire the connecting cable and secure in place at the detector by a cable strap (fig. 12). 3. Knock out the entire cable entry in the plastic section. 4. Fit the detector housing onto the conduit connection and detector, tighten the housing screw. Commissioning 1. Switch on voltage -- wait 1 minute -- the detector is ready for operation. 2. Functional check: Simulate a burglary signal in the supervised area, for example scratch lightly with a screwdriver or testsignal -- the detector should trigger an alarm. 3. Interference checks: Connect an universal measuring instrument (impedance 20kW ) between terminal 1 (0V) and output terminal 9 (Test PT) for integrator signal: -- quiescent level <0.1V -- integration start 2.5V -- max. interference level 3.4V -- alarm threshold (without load) 4.0V Normal interference must not exceed the interference threshold of 3.4V. If this value is repeatedly exceeded, localize the source of the interference and eliminate it; reduce the sensitivity only in exceptional cases. Maintenance Test detectors regularly (at least once a year) for operation and firm mounting. Approvals Any national approval requirements relating to the application of the product must be complied with. see " Shock settings" standard delayed see " Settings recommended" Technical data Supply voltage (nom. 12V) 7.0...16.0VDC Current consumption (12VDC/quiescent) typ. 3.5mA -- alarm condition 5mA Alarm output relay, opens at alarm -- contact 30VDC / 100mA Electronic alarm output (short-circuit proof £16V) alarm 0V -- alarm hold time 2.5s Tamper surveillance microswitch, closed with cover in place -- contact rating 30VDC / 100mA -- supply voltage 6V...<7V alarm Test point terminal 9 analog integrator signal -- quiescent level <0.1V -- integration start 2.5V -- max. interference level 3.4V -- alarm threshold (without load) 4.0V Operating radius 1.5m Coverage area 7m2 Coverage volume 0.5m3 Sensitivity, adjustable in 4 levels Response time, adjustable in 2 levels Shock settings 4 levels Ambient conditions: -- operating temperature --20 ...+60 C -- storage temperature --50 ...+70 C -- humidity, DIN class F <95% -- housing protection category IEC IP43 -- insensitive to RD interferences (0.1MHz...1GHz) (IEC801-3) £15V/m -- immunity to spike voltages on supply line -- differential (IEC801-5) 1kV -- common mode (IEC801-5) 3kV Elements supplied with detector 1 Seismic detector 1 Mounting instructions 1 Mounting template 3 Cable straps GM526 GMXP GMXC2 Seismic detector Mounting plate Conduit connection sleeve 16mm 503 536 276 737 502 184 Körperschallmelder GM526 Montage Einsatz Der Körperschallmelder GM526 dient zuverlässig zum Schutz gegen Angriffe mit Sprengstoff und sonstige Versuche, einen stabilen Metallbehälter mit irgendeinem derzeit bekannten Werkzeug zu öffnen. Funktionsweise Beim Bearbeiten von harten Materialien, wie Beton, Stahl oder Kunststoffbewehrungen, entsteht eine Massenbeschleunigung. Dadurch werden mechanische Schwingungen erzeugt, die als Körperschall übertragen werden. Der Sensor des Körperschallmelders, der mit dem zu überwachenden Objekt verbunden ist, nimmt diese Schwingungen auf und wandelt sie in elektrische Signale um. Die Melderelektronik analysiert die Signale in einem ausgewählten Frequenzbereich, der für Einbruchwerkzeuge charakteristisch ist, und löst über einen Relaiskontakt Alarm aus. Da die Detektionsempfindlichkeit und die Ansprechzeit sich einstellen lassen, kann der GM525 für alle denkbaren Überwachungsaufgaben eingesetzt werden, wie zum Beispiel bei -- Fahrscheinautomaten, -- Verkaufsautomaten, -- Fernsprechautomaten, -- kleinen Hotelzimmer-Tresoren (£0,065m3) in einfacher Stahlausführung (für alle grösseren Tresore GM530 oder GM560 verwenden). Wirkbereich Abb. 1 und 2 Als Wirkbereich wird die Oberfläche eines von einem Melder überwachten Gegenstandes bezeichnet. Der Wirkbereich ist in hohem Masse vom Material des zu überwachenden Objektes abhängig. Nach der Erfahrung in der Praxis gilt für Stahl ein Wirkradius «r» von 1,5m (Abb. 1). Achtung: Fugen zwischen zwei Materialien dämpfen in jedem Fall die Übertragung des Körperschalls, daher für Multilayer-Safes nicht geeignet. Öffnen des Melders Abb. 3 Der Körperschallmelder GM526 hat ein Doppelgehäuse. Diese aufwendige Zweikammerkapselung bietet dem Melder ausserordentlich guten Schutz gegen elektromagnetische Beeinflussung sowie unbeabsichtigte oder mutwillige Beschädigung. 1. Die unverlierbare vordere Schraube lösen und den Metalldeckel abheben. Der Körperschallsensor liegt nun frei. 2. Zum Befestigen des Melders die beiden vormontierten Kreuzschlitzschrauben M4x8mm verwenden. Direktmontage auf Stahl Abb. 4 -- 6 Der Melder kann unmittelbar auf Stahlplatten mit glatter Oberfläche montiert werden. Stellen Sie sicher, dass sich zwischen der Stahloberfläche und dem Körperschallsensor keine Farbreste befinden und die Montagefläche eben ist. Wenn das nicht gewährleistet ist, muss eine Befestigungsplatte GMXP verwendet werden. 1. Von der Montag ...