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Apollo Security, Inc. While every precaution has been taken in the preparation of this document, Apollo Security assumes no responsibility for errors or omissions, or for damages resulting from the use of information contained in this document or from the use of programs and source code that may accompany it.
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IMPORTANT INFORMATION W A R N I N G HIGH VOLTAGE, AC MAIN POWER SHOULD ONLY BE CONNECTED BY QUALIFIED, LICENSED ELECTRICIANS. ALL APPLICABLE LAWS AND CODES MUST BE FOLLOWED. IF THIS PRECAUTION IS NOT OBSERVED, PERSONAL INJURY OR DEATH COULD OCCUR Power should not be applied to the system until after the installation has been completed.
The AAN-1/2 works through connection to a host programming device (PC computer with a database interface application), which defines configuration for the two built-in reader interfaces. The connections between the AAN-1/2 and host can be made via Ethernet TCP/IP (AAN-1/2N) or RS-232 or RS-485 serial connection (AAN-1/2S).
Unlocked—Door strike is continuously energized and the door contact input is not monitored. Access is not controlled. o Facility Code—The entire card contents are read by the AAN-1/2, but only the Facility Code is checked, and if it matches a Facility Code downloaded from the programming host, access is granted.
AAN-1/2. Once programmed, the AAN-1/2 will continue to function without connection to the host. A record of all actions that happen while there is no connection is stored in the memory of the AAN (limited by the capacity of the memory) for reporting at a later time when connection with the host has been re-established.
AAN-1 & AAN-2 Hardware Manual Terminal Connectors The AAN-1/2 has three terminal blocks for connecting power, reader and alarm inputs, and relay output connections. The AAN-2 is equipped with a fourth terminal block for an additional relay. The connection terminals are factory equipped with removable screw-down quick connectors which are easily removed from the board by firmly grasping the connector and pulling away from the board.
Table 2.1: AAN-1/2 Terminal Connections. DIP Switches The AAN-1/2 has one block of DIP switches, with 8 switches. These switches are used to set various configuration options for the interface. It is recommended to power the board down before making any changes in the DIP switch settings as any changes will not take effect unless the power is cycled.
This setting must be specified in the host software in able to identify the device. A maximum of 16 AAN-1/2 devices can be installed on one communication line (RS-485), with each having a unique address (between 0-31). The communications address must also be specified in the host software when the AAN-1/2 is connected though a network.
Module Installation - The desired module should be installed so the long end extends towards the middle of the board and the mounting holes provided on the AAN-1/2 and ASM or ENI align so a plastic stand-off and screws can be attached to connect the holes. METAL SCREWS AND STANDOFFS SHOULD NOT BE USED TO MOUNT THE ASM/ENI.
Firmware The operating program for the AAN-1/2 is stored in re-programmable flash memory. In the event that the firmware must be re-installed or updated, no chips need to be replaced on the panel. The new program can be loaded from the host via special software.
Additional Installation Information 2.7.1 Mounting Holes Four holes are provided for mounting the AAN-1/2. Standoffs should be used when mounting in order to protect the underside of the circuit board. Figure 2.7.1 AAN-1/2 Mounting Holes. Location of mounting holes for the AAN-1/2 is shown in scale.
Power Power Connection: TB8 Power is supplied to the AAN-1/2 by the voltage connection in terminal block 8 (see Part 2.1 for exact locations of terminals). The power connection should be 12-24 VDC. Power consumption is 250 mA. The AAN-1/2 is protected from over-current and over-voltage by onboard circuitry.
Please check the applicable regulations and legislation in your country prior to installing the AAN-1/2 controller and other Apollo products. In the US, the National Electrical Code, as well as other safety regulations, require that all equipment chassis and/or enclosures be grounded in order to prevent electrical shock hazards.
Typically, the communication will be from a standard 16550 UART COM-port on a PC which will be connected directly to the AAN-1/2 in the case of RS-232 or through the use of an adapter or add-on PC card to achieve the RS-485 signal. The communications wiring must cross-over from the PC to the panel as shown in Figure 3.3.1.
3.3.2 Network For connection from the host to the AAN-1/2, an ENI-100 Network Interface Module is used. The ENI-100 acts as a standard Ethernet network device and occupies one IP address (see Part 4 for programming instructions). The connection from the ENI to the network is made by a standard RJ-45 jack. A standard UTP network cable should be connected from the ENI-100 to the local network via a network switch, hub or other network connection device.
Figure 3.3.2.1: ENI-100 Hardware Layout 3.3.2.1.2.1 Connectors TTL Serial Connector 12-pin connector located on the underside of the ENI used for connection to port J4 on the AAN-1/2N. Communication AND power are supplied through this connector. RJ-485 Jack For communication to the network backbone a standard RJ-45 female connector is provided. The ENI-100/110 communicates at 10 or 100Mbs over standard Ethernet networks.
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"Program" button to save the settings. Clicking "Reset" will change all parameters on the page to their previous values. ENI-100 Parameters: AAN-1/2 Standard Settings - The italicized settings below will need to be set for standard configuration for use with the AAN-1/2. Other settings may be necessary or desired, according to your configuration:...
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8080 were used, it would be necessary to specify this port in addition to the IP address such as entering in the browser address bar: http://192.168.10.177:8080. Connection: Select either a TCP or UDP connection. TCP communication is used for AAN-1/2 to host communication. Required: TCP...
AAN-1/2 power input. There must be sufficient power to supply the load of all readers as well as for the AAN-1/2 itself (+12 to +24VDC @ 250 mA). If the readers have a greater total power requirement, or if there are other wiring concerns, external power supplies should be used to power the readers.
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Ground Table 3.4.1: AAN-1/2 Reader 1 Wiring. The AAN-1/2 supports up to two card readers which are connected in standard configuration. For each reader connection there is a door contact input, exit push button input and one axillary input which is displayed here connected to a motion sensor. Refer to the Terminal Connectors table and the installation instructions for the reader that will be used for exact wiring positions.
NOTE: ATM-30 end of line resistors (or an equivalent substitute) are designed to work with the AAN-1/2 supervision values on STANDARD AAN-1/2 interfaces. The AAN-1/2 is available by special order with custom resistor values. In the case of improper function of the supervision, verify what type of AAN-1/2 is installed in the system.
System Wiring Figure 3.5 Input Supervision. The AAN-1/2 reader inputs can be configured for Supervised or Unsupervised. End of line resistors must be used in the supervised configuration in order for the circuits to report the correct state. 3.5.2 Door Contact Input (Door Position Switch) This is a normally closed input and should have a jumper installed if not used! Terminal connectors: DC, DCR;...
Output Relay Wiring The AAN-1 has one output relay onboard which is a dedicated strike relay for reader 1 and 2 (paired mode). The AAN-2 has two output relays onboard, with a dedicated strike relay for reader 1 and an additional relay which functions as a strike relay for reader 2 (in Unpaired Reader Mode) or as a Local Alarm Relay (in Paired Reader Mode).
A typical electric door lock (strike) will require approximately 250 mA. (.250 amps) to control. The relay contacts on all Apollo relays are capable of switching up to 24 volts DC at up to 2 amps. If the particular locking device requires more that 2 amps to control, a separate, external relay capable of switching the required amount of current must be installed.
A suppression diode is included with the internal relays on the AAN-1/2. This diode will provide the maximum effectiveness if the wires between the AAN-1/2 and the strike are very short. If the wires between the strike relay in the reader and the electric lock itself are longer than 6 inches, a separate, external diode should also be installed.
Strike Wiring, External ADA-10/11, High Security Relay Use of the internal relays provided on the AAN-1/2 reader provides a possible security breach as described above. To prevent the possibility of illegally releasing the door by smashing open the reader and bypassing the internal relay, external, high security relays may be installed.
Additional Output Relay Wiring In Paired Reader Mode, the AAN-1/2 has the capability of controlling 3 ADA output relays in addition to an ADA for the strike relay (for a total of 4). In Unpaired Reader Mode (AAN-2 only), each reader can control 3 ADA modules in addition to the ADA strike relay for each reader, thus a total of 8 ADA modules.
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AAN-1 & AAN-2 Hardware Manual On the ADA-11, addresses are set by simply pushing the switch to the correct ON or OFF position on the device. ADA-11 Reader Setting Reader Paired 1+2/Unpaired 1 NOT USED ON AAN-1/2SL *This group does not function in Paired Mode! Table 3.6.1: ADA-11 Reader Setting...
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NOT CUT NOT CUT NOT CUT NOT USED ON AAN-1/2SL *This group does not function in Paired Mode! Table 3.6.3: ADA-10 Reader Setting Next, the function of the ADA-10 must be defined. This is done by cutting THREE of the four jumpers for Output Select on the ADA-10.
Cabinet Tamper Input: TB1 This input is for connection to a switch located on the cabinet in which the AAN-1/2 is installed to detect unauthorized access to the panel. This is a normally-closed contact. In the event of a tamper condition, the exit push buttons will not function on all reader connections.
Technical Support section of the Apollo Security website. Apollo's website can be found at http://www.apollo-security.com For further questions regarding obtaining these utilities, contact your Apollo support representative. ENI-100 IP Programming The ENI-100 occupies one IP address in order to connect to the network and to the programming host.
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AAN-1 & AAN-2 Hardware Manual DEVICE SEARCH SELECTION a) Click "Search" to display devices on the local network. If the desired device does not display in the list, it may be possible to program the device using the MAC Address Selection method described previously.
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AAN-1 & AAN-2 Hardware Manual The main configuration screen shows a variety of options for the ENI-100. To change the IP address of the devices, type the desired address into the appropriate boxes. Remember that the new IP address should be available from your network in able to be able to access this web page configuration screen again.
AAN-1 & AAN-2 Hardware Manual 4.1.3 Telnet To configure the ENI using Telnet, connect to the internal Telnet server of the ENI-100 using a Telnet client using port 9999. Using the configuration menus (Menu 0 for Server Settings), change the network setup values to the desired settings.
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AAN-1 & AAN-2 Hardware Manual Disable Web Server (N) ? - Enable/Disable web configuration pages. Disable Web Setup (N) ? - Enable/Disable configuration by web pages. Disable ECHO ports (Y) ? - Enable/Disable echo of characters received on the serial port.
The first thing that must be verified at the card reader is the RS-485 communications. If the reader is unable the communicate to the controller, most other functions will not work. Communications should be verified by observing the LED's on the host controller and/or verifying voltages on the RS-485 line. See Apollo's General Troubleshooting guide for more information.
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