Title: Aritech Magnetic Locks
1Aritech Magnetic Locks
- Commercial Technical Training
- (Version 0800)
2Contents
- 1. General (2)
- 2. Applications (3)
- 3. Products (16)
- 4. Installation (8)
- 5. Wiring / connections (10)
- 6. Troubleshooting
31. General
- Installing an electromagnet is particularly easy.
There is no need to be a specialist installer of
locks. - The magnet attracts the armature plate and holds
it tight. That is the reason why the plate has to
be fitted as close as possible to the magnet. - A magnet correctly installed, never affects its
surroundings because it is a closed magnetic
field. When used correctly, there is no
interference with nearby installations and no
health risks. - The electromagnetic locks EM are particularly
well treated to resist corrosion. But care must
be taken to protect the electrical parts and
connections.
41. General
- There is NO residual magnetism on the EM magnets!
It means that as soon as the power is switched
off, the lock is released immediately and there
is no residual holding. - The EM electromagnets do not require special
maintenance. It is important not to clean them
with an abrasive or a solvent.
52. Application - 1
- 1800 Newton
- Small magnet designed for light but reliable and
secure locking. Particularly well adapted for
locking glass doors, or medium internal doors of
modern offices - 3000 Newton
- Intermediate range of magnets meeting most of the
middle range security needs. It is recommended
for the majority of internal doors as they do not
have to be resistant to heavy attacks.
62. Application - 2
- 5300 Newton
- Basic electro-magnet, specially designed to
combine a maximum holding force with low power
consumption. This magnet is used for all high
security access where efficiency and security
cannot be comprised. - The Shearlock
- This is a hybrid magnet mixing a classical
electro-magnet and an electric lock. The
shearlock is the only solution for fitting a
flush magnet on a swinging door.
72. Application - 3
- Accessories
- The mounting brackets are made from extruded
anodized aluminium. They adapt the magnets for
all kinds of doors.
83. Products Single, not monitored - 1
- FE411
- Vertical
- 1330N
- 12 VDC
- 400 mA
- Stainless steel
- 162 x 32 x 23 mm (w x h x d)
93. Products Single, not monitored - 2
- FE321
- Standard / surface
- 3000N
- 12/24 VDC
- 500/250 mA
- Anodized Aluminium
- 268 x 48 x 25 mm (w x h x d)
- FE32Z, FE32L, FE32A
103. Products Single, not monitored - 3
- FE319
- Mortice
- 3000N
- 12/24 VDC
- 500/250 mA
- Anodized Aluminium
- 229 x 39 x 24 mm (w x h x d)
113. Products Single, not monitored - 4
- FE370
- Standard
- 6000N
- 12/24 VDC
- 500/250 mA
- Anodized Aluminium
- 268 x 73 x 40 mm (w x h x d)
- FE37Z, FE37L, FE37A
123. Products Single, monitored - 1
- FE310 / FE312
- Standard / Mortice
- 1800N
- 12/24 VDC
- 380/190 mA
- Anodized Aluminium
- 166 x 39 x 21 mm (w x h x d)
- Reed
- FE31Z / none
133. Products Single, monitored - 2
- FE322
- Mortice
- 3000N
- 12/24 VDC
- 500/250 mA
- Anodized Aluminium
- 229 x 39 x 24 mm (w x h x d)
- Reed
143. Products Single, monitored - 3
- FE323
- Standard / surface
- 3000N
- 12/24 VDC
- 500/250 mA
- Anodized Aluminium
- 268 x 48 x 25 mm (w x h x d)
- Relay LED
- FE32Z, FE32L, FE32A
153. Products Single, monitored - 4
- FE371
- Standard / surface
- 6000N
- 12/24 VDC
- 500/250 mA
- Anodized Aluminium
- 268 x 73 x 40 mm (w x h x d)
- Relay LED
- FE37Z, FE37L, FE37A
163. Products Single, monitored - 5
- FE 372
- Standard / surface
- 6000N
- 12/24 VDC
- 500/250 mA
- Anodized Aluminium
- 268 x 73 x 40 mm (w x h x d)
- High secure 2 relays LED
- FE37Z, FE37L, FE37A
173. Products Single, monitored - 6
- FE772
- Standard / surface
- 5790N
- 12/24 VDC
- 500/250 mA
- Anodized Aluminium
- 268 x 75 x 40 mm (w x h x d)
- Dual Reed Hall effect and relay
- FE37Z, FE37L, FE37A
183. Products Dual, not monitored - 1
- FE425
- Standard / surface
- 2 x 2890N
- 12/24 VDC
- 2 x 500/250 mA
- Anodized Aluminium
- 500 x 42 x 24 mm
- FE480, FE481, FE482, FE483
- (FE482 is Z/L kit for inswinging doors)
193. Products Dual, not monitored - 2
- FE375
- Standard / surface
- 2 x 6000N
- 12/24 VDC
- 2 x 500/250 mA
- Anodized Aluminium
- 536 x 73 x 40 mm (w x h x d)
- FE37Z, FE37L, FE37A
203. Products Dual, monitored - 1
- FE426
- Standard / surface
- 2 x 2890N
- 12/24 VDC
- 2 x 500/250 mA
- Anodized Aluminium
- 500 x 42 x 24 mm
- Hall effect and relay
- FE480, FE481, FE482, FE483
- (FE482 is Z/L kit for inswinging doors)
213. Products Dual, monitored - 2
- FE376
- Standard / surface
- 2 x 6000N
- 12/24 VDC
- 2 x 500/250 mA
- Anodized Aluminium
- 536 x 73 x 40 mm (w x h x d)
- Relay LED
- FE37Z, FE37L, FE37A
223. Products Dual, monitored - 3
- FE777
- Standard / surface
- 2 x 5790N
- 12/24 VDC
- 2 x 500/250 mA
- Anodized Aluminium
- 500 x 75 x 40 mm (w x h x d)
- Dual Reed Hall effect and relay
- FE37Z, FE37L, FE37A
233. Products Shearlock
- FE380
- Mortice
- 8000N
- 12 VDC
- 250 mA
- Anodized Aluminium
- 165 x 31 x 21 mm (w x h x d)
- Relay LED
244. Installation (see steps on next slide)
- Start first by fitting the armature plate (do not
tighten the screw too much) and install the
magnet next. - After you fit the plate, power the magnet with a
9 volt battery. It will stick to the plate and
you will have your two hands free to mark the
outlines of the magnet with a pencil on the
frame. - After checking that the system is working
correctly, slightly unscrew the armature plate
and put a drop of thread locking compound into
the thread of the screw. - Do a final check on the movement of the plate.
254. Installation - armature
264.InstallationElectro- magnet
274. Installation - FE380
284. Installation - armature
294. Installation - L-bracket
304. Installation - Z-bracket
314. Installation - glass bracket
325. Wiring
- Connecting an electromagnet is simple.
Nevertheless, it can be useful to carefully read
the following notes - The minimum voltage for the power supply must be
12/24 Volts DC minimum (tolerance of 0 20 ). - This voltage should always be measured on the
magnet connector and not on the connector of the
power supply. - An electric cable has a loss of voltage directly
proportional to its length and inversely
proportional to its cross-section as explained
here after
335. Wiring
- The basic formula is Rw (r x L) / S
- Rw resistance of the wire
- r specific resistance determinate by the type
of wire (for copper 0,0175 ohm) - L length in meter (attention, there are 2
wires. Do not forget to multiply by 2!) - S cross-section of the wires in mm2
-
- And the ohm law V R x I V voltage (volts)
- R resistance (ohm)
- I Current (ampere)
345. Wiring - example
- 3 magnets are installed at 25 meters from the
power supply! They are powered in 12 VDC and each
of them has a consumption of 500 Ma. The wire has
a section of 0,5 mm2. - We have then a cable length of 50 m (there are 2
wires) and a total consumption of 1,5 A (1500 mA)
- A Calculation of the resistance of the wire
- R (0,0175 x 50) / 0,5 1,75 ohm
- B Calculation of the voltage drop
- V 1,75 x 1,5 2,62 volts
- The magnet must have as a minimum its nominal
voltage on the connector, which in this case 12
VDC. - As the cable will cause a voltage drop of 2,62
volts, it will be necessary to adjust the power
supply to 14,62 volts minimum.
355. Wiring - FE370 connections
365. Wiring FE312 connections
375. Wiring FE322 connections
385. Wiring FE323 connections
395. Wiring FE371 connections
405. Wiring FE372 connections
UK
F
415. Wiring FE380 connections
426. Troubleshooting
- The armature plate is too tight
- This is a common error when you install a magnet
for the first time. The installer is concerned
when he sees that the plate is loose and he
overtightens the screw, to crushing the rubber
washer and clamping the whole set together.
However, a door has an angular motion, and it is
the flexibility of the armature plate that
compensates for this movement. The more flexible
the plate, the better the system will function
(see installation of the armature plate).
436. Troubleshooting
- The voltage on the magnet connector is too low
- This is another classic problem of first-time
installation. The electromagnetic locks have to
be powered in 12 VDC or 24 VDC minimum. If the
voltage is lower, the holding force will be also
lowered and the monitoring will not function
properly. - Attention The magnets are supplied with a
factory setting to 24VDC. If you power in 12VDC,
do not forget to change the voltage selection