Matrix Switching Bays for the MegaPower 3200 Scalable Switcher/Control CCTV System

Transcription

1 Matrix Switching Bays for the MegaPower 3200 Scalable Switcher/Control CCTV System AD200N/P and AD2020N/P Installation Guide B

2

3 AD200N/P and AD2020N/P Matrix Switching Bays For the MegaPower 3200 Scalable Switcher/Control CCTV System Installation Guide Matrix Switching Bay (Front View) Contents Important Information... 2 About the Product... 4 Power Supply Module... 8 Video Input Module... 0 Data Buffer Module... 4 Video Output Module... 8 Connecting Cables Powering Up the Bay Adjusting Vertical Phase Adjusting Title Criteria Reattaching the Front Panel Specifications Declarations APPENDIX A: AD200DBVL Video Loss Detector Data Buffer Module APPENDIX B: AD2024MDT Master Date/Time Module APPENDIX C: Optional Equipment... 3 APPENDIX D: System Configuration Examples T IN E S DATA LINE T OUT / E X P A IN N EXT. SYNC S I OUT O N 50/60 Hz Customer Service Matrix Switching Bay (Rear View) Thank you for using American Dynamics products. We support our products through an extensive worldwide network of dealers. The dealer through whom you originally purchased this product is your point of contact if you need service or support. Our dealers are empowered to provide the very best in customer service and support. Dealers should contact American Dynamics at (800) or (56) or on the Web at Sensormatic Electronics Corp. INSTALLATION GUIDE of 64

4 Important Information This product should be installed by qualified service personnel and conform to all local codes. WARNING: RISK OF ELECTRIC SHOCK! DO NOT OPEN! No user-serviceable parts are inside. Refer servicing and adjustment to qualified service personnel. WARNING: To reduce the risk of fire or shock hazard, do not expose this product to rain or moisture. This equipment has been tested and found to comply with Part 5 of the FCC Rules. Operation is subject to the following two conditions:. This device may not cause harmful interference, and 2. This device must accept any interference received, including interference that may cause undesired operation. Unpacking and Inspection Unpack carefully. This is an electronic product and should be handled as such. Compare the items received with the packing list. Be sure to save:. Shipping cartons and insert pieces. If a failure occurs, they are the safest material to return the product. 2. The IMPORTANT SAFEGUARDS sheet. 3. These instructions. Maintenance User maintenance of this unit is limited to external cleaning and inspection. For specific recommendations refer to the IMPORTANT SAFEGUARDS sheet packaged with this product. Installation and Service This installation should be made by qualified service personnel and should conform to all local codes. Take safeguards to avoid unintentional operation by people working about the premises, falling objects, customers, building vibration, and similar causes. Opening or removing covers may expose you to dangerous voltages or other hazards. Refer all servicing to qualified personnel. Mounting As shown in Figure, a matrix switching bay fits into a standard 48.3cm (9in) rack with a height of 26.7cm (0.5in) or one rack wide by six racks high. Bays require a minimum of 44mm (.75in) clearance from bay-to-bay (one rack unit). Ensure airflow around the bays for proper ventilation. For multiple bay configurations, carefully identify the bays before mounting and place video inputs near the top of the racks to avoid tangled cables. Figure. Bay mounting dimensions 26.7cm (0.5in) Power Source 48.3cm (9in) Matrix switcher bay AD200N and AD2020N connect to a 20Vac, 50-60Hz power source. These bays use an integrated 3-wire cord for mating to the power source. Matrix switcher bay AD200P and AD2020P connect to a Vac, 50-60Hz power source. Note: This unit has a Euro-style IEC-type inlet. A suitable detachable cord connects between the IEC 320 inlet and the power source. The cord should conform to all national and local use code requirements. COMPLETE POWER UP PROCEDURES BEFORE PHYSICALLY CONNECTING EQUIPMENT TO THE POWER SOURCE. CAUTION: Before connecting the system to the power source read Powering Up the System, on page 3. Also check your installation against system configuration examples shown in Appendix D. INSTALLATION GUIDE 2 of 64

5 Connections Set jumpers in plug-in modules before making system connections. System connections require good grade, 75-ohm, RG-59U video cable (Belden 824 or equivalent) with BNC connectors. Complete all connections before applying power. Terminate all video outputs at the last bay in the run to 75 ohms. An un-terminated run results in a brighter picture than desired. A double terminated run results in a darker picture than desired. To facilitate servicing, identify all connecting cables with source/destination numbers. General Perform each installation in a planned and orderly manner. CAUTION: Each bay uses plug-in VIMs (video input modules) and VOMs (video output modules). Although VIMs and VOMs can plug into any slot of a bay and still work (as long as they are properly configured), it is important to plug all VIMs in series starting from the right-most slot and all VOMs in series starting from the left-most slot. If this is not done, future expansion and troubleshooting will be difficult. Confirm that each piece of equipment operates as early as possible during the installation procedure. It is easier to remove a few temporary connections than it is to disconnect and re-wire a large number of permanent connections. Powering Up the System Bring the system online only after: The CPU has been installed and connected Video input has been connected At least one monitor has been connected for viewing the output All lines are properly terminated At least one keyboard (or external computer) has been connected for control Power has been connected to the equipment, one bay at a time, ending with the CPU. Glossary of Terms Terms used in this guide are as follows: Matrix Switching Bay = A device that can switch a large number of video inputs such as cameras to multiple video outputs that connect to a device such as a monitor, DVR, or VCR. VIM = Video input module (each VIM supports up to 6 video inputs). Up to 6 VIMs can plug into a bay but its number may be limited by the amount of VOMs in the bay. VOM = Video output module (each VOM supports up to 4 video output devices). Up to 6 VOMs can plug into a bay but its number may be limited by the amount of VIMs in the bay. Camera Group = Each matrix switching bay supports a camera group of up to 256 video inputs: camera group (-256 inputs), camera group 2 ( inputs), camera group 3 ( inputs), and so on. Monitor Level = A monitor level is up to 6 video outputs supported by one or more bays: monitor level ( -6 outputs), level 2 (7-32 outputs), level 3 (33-48 outputs), and so on. Video outputs can be in one or more bays. ADDL (AD Data Line) = One data line controls up to four monitor levels (or 64 video outputs). Four data lines control up to 6 monitor levels (or 256 video outputs). Data Buffer = Amplifies video and filters data before sending it to a video output device. Camera Group Symbol Definitions: The symbols on the rear panel of the switching bay identify a camera group (Table ). Table. Camera group symbol definitions Symbol Camera Group Cameras CG 256 CG CG CG CG CG in increments of 256 INSTALLATION GUIDE 3 of 64

6 About the Product Note: Refer to the Glossary of Terms on page 3 while reading this section. The MegaPower 3200 matrix switching bay system can switch one of up to 3200 video inputs (typically from cameras) to one of up to 256 video outputs (typically to monitors). The maximum 3200 video input x 256 video output system is shown in Figure 4. In this case, the system manages inputs and outputs as follows: The 3200 video inputs (shown horizontally) are divided into 3 camera groups, with each group (256 inputs) supported by a switching bay. The 256 video outputs (shown vertically) are divided into groups of up to 6, with each group called a monitor level. Matrix Switching Bays Note: The number of video inputs versus video outputs required determines the number of bays used in a matrix, and the use and number of components in each bay. As shown in Figure 2, from right-to-left, the rear of a typical bay contains: An integrated AD200PS power supply module that converts ac to dc power to support the bay. AD200DB-0 plug-in data buffer module that amplifies the video signals and if required, filters associated data. Either 6 plug-in AD206AVIM video input modules (VIMs), 6 AD2034BVOM video output modules (VOMs), or a combination of both. Figure 2. Typical bay rear view VOMs VIMs Data Buffer P/S T IN E S DATA LINE T OUT / E X P A IN N EXT. SYNC S I OUT O N Plug-in Modules Except for the power supply, each plug-in module has a BNC panel that plugs into the rear of the bay and front panel/circuit board assembly that plugs into the front of the bay (Figure 3). Figure 3. Plug-in modules shown in the bay (Rear of Bay) BNC Panel Back Plane Circuit Board Plug-in modules are as follows: (Front of Bay) VIMs: A VIM, as directed by the keyboard, acts as a primary switch by selecting a video input from a camera group and making it available to the video switching bus along the backplane. A VIM: Can support up to 6 camera inputs. Is installed from right to left in the rear of the bay, the number of VIMs required depends on the number of camera inputs to be switched. If a bay cannot support the required number of VIMs, additional bays are required. Comes factory configured for the camera group it is to receive input from and the monitor level it will support. However, the installer must configure the VIM (using jumpers) if they are replacing a defective one or adding one to an existing system. Data buffer module: This module takes an input from each VIM, amplifies them, and makes them available externally via cable connections to other bays. 50/60 Hz INSTALLATION GUIDE 4 of 64

7 Figure 4. Maximum 3200 video inputs x 256 video outputs (3 camera groups x 6 monitor levels) Product Code: ADMPR N Components used: 208 Bays (Configuration using 6 mixed bays and 92 dedicated bays controlled by 4 AD Data Lines) 200 VIM-2s ( in bay containing Monitor Level and Camera Group 3) 200 VIM-3s ( in bay containing Monitor Level 2 and Camera Group 3) 2800 VIM-4s ( in bays containing Camera Group 3) 64 VOM-4s ( in bay containing Monitor Level and Camera Group 3) Camera Inputs Monitor Outputs CG CG CG CG CG CG CG CG CG CG CG CG CG VOM-4s Level - 6 Level Level Level Level Level Level Level Level Level Level 6-76 Level Level Level Level Level VIM-2s VIM-3s VIM-4s ADDL ADDL 4 ADDL 3 ADDL 2 AD Data Lines from MegaPower CPU For cameras , ADULP Universal Looping Panels required for Data Buffer to VOM connections. INSTALLATION GUIDE 5 of 64

8 T E S T / E X P A N O N T E S T / E X P A N S I T E S T / E X P A N S I O N 50/60 Hz 50/60 Hz 50/60 Hz T E S T / E X P A N S I O N T E S T / E X P A N S I O N T E S T / E X P A N S I O N 50/60 Hz 50/60 Hz 50/60 Hz VOMs: A VOM, as directed by the keyboard, acts as a secondary switch by selecting which of its four video outputs (A, B, C, or D) connects to the video input selected by the VIM of a camera group. A VOM: Is installed in the bay for the highest camera group. Comes in three types: VOM- supports four camera groups, VOM-3 supports eight camera groups, and VOM-4 supports 3 camera groups. IMPORTANT! The highest camera group is always received internally from the bay the VOM resides. All other camera groups are received externally from other bays via VOM cables. The video path of a video input is shown in Figure 7. Provides text overlay to the video signal. Comes factory configured for the monitor levels it will support. However, the installer must configure the VOM (using jumpers) if they are replacing a defective one or adding one to an existing system. Standard vs. Condensed Bays A switching bay can be an AD200 standard bay or AD2020 condensed bay. A standard bay dedicated to video inputs can support up to 256 video inputs or one camera group. Up to 6 VIMs can plug into this bay. No VOMs are used. See A in Figure 6. A mixed bay can support a mix of video inputs and outputs. The number of VIMs allowed depends on the number of VOMs required. See Table 2 and B E in Figure 6. Table 2. Mixed bay input/output combinations Video Inputs Video Outputs 240 (5 VIMs) 4 ( VOM) 224 (4 VIMs) 8 (2 VOMs) 208 (3 VIMs) 2 (3 VOMs) 92 (2 VIMs) 6 (4 VOMs) A bay dedicated to video outputs can support up to 64 video outputs. Up to 6 VOMs can plug into this bay. No VIMs are used. See F in Figure 6. Figure 6. VIM and VOM combinations 24 A 6 VIMs (Dedicated Bay) IN DATA LINE OUT IN EXT. SYNC S I OUT 225 B 5 VIMs, VOM (Mixed Bay) IN DATA LINE OUT IN EXT. SYNC OUT Standard Bay The standard bay (Figure 5) contains a video switching bus along an internal backplane that has 6 lines. Note: A standard bay is considered mixed when it contains both VIMs and VOMs, or dedicated when it contains only VIMs or VOMs. VOMs are installed in only in the bay for the highest numbered camera group C 4 VIMs, 2 VOMs (Mixed Bay) 6 6 O N IN DATA LINE OUT IN EXT. SYNC OUT D 3 VIMs, 3 VOMs (Mixed Bay) 6 6 IN DATA LINE OUT IN EXT. SYNC OUT Figure 5. AD200 standard bay (rear view) VOMs VIMs Data Buffer P/S 77 E 2 VIMs, 4 VOMs (Mixed Bay) IN DATA LINE OUT IN EXT. SYNC OUT F 6 VOMs (Dedicated Bay) IN DATA LINE OUT IN EXT. SYNC OUT T IN E S DATA LINE T OUT / E X P A IN N EXT. SYNC S I OUT O N 50/60 Hz INSTALLATION GUIDE 6 of 64

9 Figure 7. Path of video input (4-bay system using VOM, 008 inputs x 4 outputs) Physical Diagram Bay 2 (CG 2) VOM Bay 3 (CG 3) Bay 4 Bay A B C D 4 Camera Group 4 Data Buffer Not Connected Camera Group Data Buffer Functional Block Diagram BAY (Camera Group ) VIMs (Primary Switch) BNC Panel 6 VIM Circuit Board 6x6 MUX 6 6 Data Buffer Circuit Board BNC Panel BAY 4 (Camera Group 4 / Monitor Level ) To Mon 5 6 via 2 nd to 4 th VOMs A B C D VOM BNC Panel th VOM (When Used, Monitor 3 6 Out) 2 3 rd VOM (When Used, Monitor 9 2 Out) 2 nd VOM (When Used, Monitor 5 8 Out) VOM Circuit Board, Monitor 4 Out 2 (Secondary Switch) VIM 2 6x6 MUX VIM VIM VIM 2 6x6 MUX 6x6 MUX 6x6 MUX VIM Back Plane Back Plane BAY 2 (CG 2) Internally Routed Bay 4 BAY 3 (CG 3) A B C D A B C D A D Monitor Select Jumpers CG CG 4 CG CG 4 CG CG 4 CG CG 4 3x MUX 3x MUX 3x MUX 3x MUX Text A Overlay Text B Overlay Text C Overlay Text D Overlay 6x6 MUX INSTALLATION GUIDE 7 of 64

10 Condensed Bay The condensed bay (Figure 8) has two separate video switching buses that have 6 lines each. A condensed bay: Is like two bays in one with two separate back panels and two sets of four VIMs and four VOMs Can support up to 28 camera inputs and 32 monitor outputs. Figure 8. AD2020 condensed bay (rear view) VOMs VIMs VOMs VIMs Data Buffer P/S T IN E S DATA LINE T OUT / E X P A IN N EXT. SYNC S I OUT O N Control Inputs Referring back to Figure 4. AD Data Line A separate MegaPower CPU (central processing unit) and keyboard control the matrix switcher via an AD data line. This line: Plugs into the DATA LINE IN BNC on the rear panel of the bay. Sends 64 ADDL switch packets of information to the switching bays that includes camera and monitor selection, titles, and time and date. Controls up to 3 camera groups (3200 video inputs) and up to four monitor levels (64 video outputs). IMPORTANT! For dome PTZ control, each additional four camera groups (024 video inputs) requires a separate AD data line (Table 2). Can loop from bay-to-bay /60 Hz CAUTION: A VIM or VOM can plug into any unused slot as long as it is properly configured. However, to install the system efficiently and to facilitate troubleshooting, ALWAYS install: - VIMs in series beginning from the rightmost slot as viewed from the rear of the bay. - VOMs in series beginning from the leftmost slot as viewed from the rear of the bay. Table 3. AD data line control (shaded areas indicate AD024 support) AD Data Line PTZ Command for Dome Camera Bay Matrix Switch for Video Output ADDL ADDL ADDL ADDL Synchronization Pulse An external vertical synchronization pulse used to synchronize cameras connects to the EXT. SYNC IN BNC on the rear panel of the bay. This pulse can loop from bay-to-bay. INSTALLATION GUIDE 8 of 64

11 Power Supply Module The AD200PS power supply module converts ac to dc which powers the bay. Power Supply Front Panel Referring to Figure 9:. SET UP/NORMAL SWITCH: In the SET UP position, this switch enables sync test and adjustment. The red LED blinks when the switch is in the SET UP position. 2. SYNC LOSS LED: This red LED is off if video sync is locked. When lit, it indicates that sync is not locked due either to a poor or wrong sync signal or none at all (as determined by the slide switch just below it). 3. SYNC REFERENCE SELECTION SWITCH: This switch selects one of three video sync references: EXT V-DRIVE (up position): Selects the external vertical drive pulse input on the rear panel (EXT SYNC IN). EXT CAM (center position): Selects composite video. AC LINE (down position): Selects the ac line (as supplied). 4. SYNC PHASE ADJUSTMENT: Accessed through the hole in the front panel of the power supply, an adjustment screw adjusts the phase of the sync pulse with respect to the selected reference. When the sync test switch is set to SET UP, a horizontal line displays on Monitor to show the location of the sync pulse with respect to the picture Vdc AND 9Vdc LEDs: These green LEDs light to indicate that dc voltages are present (Note: For 240Vac systems, output voltages are ±8Vdc). 6. POWER ON/OFF SWITCH: This switch is used to apply power to the bay. When in the ON position, this switch lights up green. Power Supply Rear Panel Referring to Figure 9: 7. SERIAL # TAG: Serial number assigned to this switching bay. 8. DATA LINE IN: Input for the data line. 9. DATA LINE OUT: Looping output for the data line. This line must be terminated with a 75-ohm terminator. 0. EXT. SYNC IN: Input for external vertical synchronous pulse, either camera sync or an externally created sync pulse.. EXT. SYNC OUT: Looping output for the vertical synchronous pulse. This line must be terminated with a 75-ohm terminator. 2. POWER CORD. Figure 9. Power supply front and rear panels SET UP NORMAL SYNC LOSS EXT V-DRIVE EXT CAM AC LINE PHASE +9VDC -9VDC Front Panel Model: AD200 S/N: XXXXX IN DATA LINE OUT IN EXT SYNC OUT 20 V 60 Hz Rear Panel Fuses Four replaceable fuses are on the power supply circuit board. Replacement fuses must meet national and local use code requirements. Fuse ratings: For 20VAC Systems: F: 25V, 5A, 5 x 20mm F2: 25V, 5A, 5 x 20mm F3: 250V, SB, 0.5A, 5 x 20mm, UL listed F4: 250V, SB, 0.5A, 5 x 20mm, UL listed For 240VAC CE Compliant Systems: F: 250V, T, 3.5A, 5 x 20mm F2: 250V, T, 3.5A, 5 x 20mm For 240VAC Non-CE Compliant Systems: F: 25V, 5A, 5 x 20mm F2: 25V, 5A, 5 x 20mm F3: 250V, T, 0.25A, 5 x 20mm F4: 250V, T, 0.25A, 5 x 20mm INSTALLATION GUIDE 9 of 64

12 Video Input Module Note: VIMs are installed, configured, and labeled either in the factory or by a technician in the field. As directed by the keyboard, an AD206AVIM (Figure 0) selects which one of up to 6 video inputs is used for display (primary switch). The video path is shown on Figure. Factory set jumpers on the VIM circuit board identify the video input and output range for the VIM. A camera symbol identifies the video inputs. A label next to the BNCs shows the input number and a label at the top of the VIM shows the lowest camera input for that VIM according to its location within the bay(s). Figure. Video path through VIM- 2 3 VIM- 6 Back Plane Circuit Board A VIM can have one of four rear panels: AD206AVIM-: A VIM- has 6 rear panel BNC connectors that receive video from a camera and send it to the plug-in circuit board configured for the video input/output ranges. The video is then sent to the back plane. Figure 0. VIM front panel and rear panel types Front Panel Rear Panel AD206AVIM 8 O U T -2 Rear Panel 9 6 I N O U T -3 Rear Panel 6 I N O U T -4 Rear Panel 6 AD206AVIM-2 and AD206AVIM-3: As shown in Figure 2, VIM-2 and -3s work together to create 6 video inputs. Each has eight rear panel video input connectors to receive video input. The video is sent to the plug-in circuit board factory configured for the video input/output ranges and then to the back plane. - The VIM-2 has a 34-pin ribbon coax cable connector that receives eight video inputs from the VIM-3 in addition to its own eight inputs (for a total of 6). The ribbon connector also sends eight inputs from the VIM-2 to the VIM-3. - The VIM-3 has two 34-pin ribbon coax cable connectors: an IN connector to receive eight video inputs from a VIM-2 and to send its own eight inputs to the VIM-2 (for a total of 6), and an OUT connector to expand its own eight inputs and the eight inputs from the VIM-2 to more monitor levels via a VIM-4. AD206AVIM-4: Has two 34-pin ribbon cable connectors (Figure 2): - An IN connector to receive the 6 video inputs from a VIM-3. - An OUT connector to expand the 6 inputs to more monitor levels. - The OUT connector is terminated with 75 ohms if the last in a series. INSTALLATION GUIDE 0 of 64

13 Figure 2. Video path through VIM-2, VIM-3 and VIM VIM-2 Back Plane Configuring a VIM CAUTION: A VIM circuit board can plug into any unused slot that has a rear VIM BNC panel. However, to install the system efficiently and to facilitate troubleshooting, ALWAYS install VIMs in series beginning at the right-most slot as viewed from the rear of the bay. 8 OUT 8 8 Circuit Board CAUTION: The video input selection is independent of the video output selection. However, both inputs and outputs must be selected correctly based on the slot the VIM is plugged in to. 8 Set the VIM to identify the inputs and outputs it is to respond to. The VIM has two 8-position switches: S and S3. Referring to Figure 3, Table 4 and Table 5: 9 0 VIM-3 Back Plane. Remove the VIM from the bay. 2. Set switch S positions and 2 to select one of 6 monitor levels (each containing 6 monitors). The monitor level is determined by the bay s hierarchy within the matrix system. 6 IN OUT Circuit Board 3. Set switch S3 positions and 2 for the appropriate range of inputs in increments of 024 (positions 3 through 8 are not used). 4. Set switch S positions 3 through 8 to narrow the input selection to the VIM s 6 inputs. The 6 inputs selected is determined by the VIM s location in the bay and the bay s hierarchy within the matrix system. 5. Plug the module into the right-most open VIM slot. VIM-4 Back Plane 6. Repeat this procedure for the next VIM, if required. Figure 3. VIM switch location S IN 6 8 S3 OUT 6 6 Circuit Board INSTALLATION GUIDE of 64

14 Table 4. VIM video output identification (0 = OFF, = ON, X = Don't Care) S Output X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X 3-28 X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X VIM Tables Table 5. VIM video input identification (0 = OFF, = ON, X = Don't Care) S S Input Input Input Input X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X 0 0 (continued) INSTALLATION GUIDE 2 of 64

15 Table 5. VIM video input identification (0 = OFF, = ON, X = Don't Care), continued S S Input Input Input Input X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X X VIM Tables INSTALLATION GUIDE 3 of 64

16 Data Buffer Module The AD200DB-0 data buffer (Figure 4) is used when video must be amplified and sent externally to a VOM(s) in another bay (see Figure 5). Figure 4. AD200DB-0 rear panel Output O U T The data buffer: Amplifies video for up to 6 video inputs (but does not provide a text overlay). Always inserts into the slot adjacent to the power supply. Is labeled on its rear panel to reflect its camera group when it is used to route video to VOMs in another bay. Is not used for video coming internally from VIMs in the bay the VOM resides. When the data buffer is not used, a Test/Expansion label replaces the output numbers on the rear panel. Filters the data line, if so configured. Filtering reduces the number of data line switching packets to improve switching speed in bays having only VIMs. Filtering is rarely used and is not available in expanded systems having over 024 cameras. Preconfigured systems have filtering set to OFF. Note: An AD200DBVL data buffer module with video loss detection can be used instead in bays used for the highest monitor level (see Appendix A for description). When video loss detection is desired, an RJ-45 jack used for communication with the CPU replaces one BNC, reducing total video outputs by one. See Appendix A. 8 9 O U T Output 8 6 Output 6 Test/Expansion replaces output numbers on rear panels of data buffers not used to send video to VOMs. These modules are designated AD200DB-00. INSTALLATION GUIDE 4 of 64

17 Figure 5. Example: Bay examples showing data buffer use Bay Example: 77 7 Data Line in from MegaPower CPU Cameras to 92 are internally routed to VOMs (no cables required) VOMs VIMs Data Buffer Module Not Connected Video Out Bays Example: IN IN VIMs VIMs VOMs Video Out 448 Cameras in this bay are internally routed to VOM outputs Data Buffer Module Not Connected 256 Data Line Cameras in this bay are externally routed by cables to VOM outputs 32 6 Data Buffer Module Used INSTALLATION GUIDE 5 of 64

18 Configuring a Data Buffer Module The data buffer module has three switches: slide switch S, and 8-position switches S2 and S3 (see Figure 6).. Remove the module from the bay. 2. Set switch S to NORMAL. 4. For each data line used, set switch S3 to identify which camera group goes to which monitor level (Table 7). 5. Plug the module into the data buffer slot. Figure 6. AD200DB switch locations 3. Set switch S2 positions and 2 to turn the filter on or off (Table 6). Table 6. Filter settings (0 = OFF, = ON, X = Don't Care) Switch S2 Filter Pass only specified 0 0 X X X X X X information packets Pass all information 0 X X X X X X packets for cameras less than or equal to 024 Pass all information packets for cameras (Default) X X X X X X CAUTION: Turn the filter on only when the bay in which it resides is dedicated to VIMs! Turning the filter on reduces AD data line switch packets. If the BVOM is in the same bay as the data buffer module (signals sent internally), turn the filter off to allow all switch packets to pass. INSTALLATION GUIDE 6 of 64

19 Table 7. Data buffer video input and output identification for each data line (0 = OFF, = ON, X = Don't Care) Input ADDL Output ADDL2 Output ADDL3 Output ADDL4 S3 Output X 0 0 X X 0 0 X X 0 0 X X 0 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X X X X X X X X X 0 0 X X 0 0 X X 0 0 X X 0 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X X X X X X X X X 0 0 X X 0 0 X X 0 0 X X 0 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X 0 X X X X X X X X X X 0 0 X X 0 X X 0 X X X INSTALLATION GUIDE 7 of 64

20 Video Output Module The AD2024BVOM: As directed by the keyboard, acts as a secondary switch by selecting which of its four video outputs (A, B, C, or D) connects to the video input selected by the VIM of a camera group. Has jumpers on its circuit board that identify the video input and output ranges for the BVOM. Adds titles and time/date characters to switched video. The video path through the BVOM is shown in Figure 7. BVOM front panel: Referring to Figure 8: Controls adjust the brightness, vertical, and horizontal position for titles displayed on each of the four video outputs. Four-position rotary switch governs which output to control. LED blinks to verify operation of the BVOM. Figure 8. BVOM front panel D.. A Blinking LED shows proper operation 4-position rotary switch Figure 7. Video path through BVOM External Inputs from Data Buffer Rear Panel A C B D A B C D A B C D A B C D A B C D 2 Back Plane A D A D A D A D 2 Circuit Board M6 Internal Inputs M 3 of 3 Select IC H V B Horizontal control pushbutton Vertical control pushbutton Brightness control pushbutton VOM- uses connections, 2, 3, and 3 VOM-3 uses connections 7, and 3 VOM-4 uses connections 3 INSTALLATION GUIDE 8 of 64

21 BVOM rear panels: A BVOM can have one of three rear panels (Figure 9): AD2024BVOM-: - Supports up to three external camera groups, one internal camera group, and up to four video outputs. - The bottom four BNCs are the video outputs for the four camera groups. - A VOM- is required for every four outputs. AD2024BVOM-3: - Supports up to seven external camera groups, one internal camera group, and up to four video outputs. - The four BNCs at the lower left are the video outputs for the eight groups. - A VOM-3 is required for every four outputs. AD2024BVOM-4: - Supports up to 2 external camera groups, one internal camera group, and up to four video outputs. - A VOM-4 is required for every four outputs. - The left row of four BNCs is for video inputs from other switching bays. - Ribbon coax cable IN/OUT connectors are used to increase the number of video inputs in 024 increments. An ADULP Universal Loop Panel is required to connect BNC inputs to the ribbon cable (Figure 20). CAUTION: On the Loop Panel, make sure the ribbon cable connects to the OUT connector (not the IN). - The four BNCs at the lower right are the video outputs. Figure 9. AD2024BVOM rear panels CG CG2 CG O U T 4 CG CG2 CG3 CG4 CG CG2 CG3 CG Figure 20. VOM-4 and a Universal Loop Panel used as a video interconnect panel VOM-4 CG5 CG6 CG7 Camera Groups 5-8 Cam. Groups 9-2 A C B D Camera Group 5 A B ADULP Loop Panel C D Camera Group 6 A C B D Camera Group 7 A B C D Camera Group 8 CG5-8 CG9-2 INSTALLATION GUIDE 9 of 64

22 Configuring a BVOM CAUTION: A BVOM circuit board can plug into any unused slot that has a rear BVOM BNC panel. However, to install the system efficiently and to facilitate troubleshooting, ALWAYS install BVOMs in series beginning at the left-most slot as viewed from the rear of the bay. CAUTION: - Turn the filter in the data buffer module to OFF (see page 6). - Switch S3 must be set to NORMAL. Referring to Figure 2, set the BVOM to identify the video inputs and outputs it is to respond to. Figure 2. BVOM connectors, jumpers, and switch location RS-232 Connector J2 Boot Standard or Split Bay Mon 4 Mon 5 8 J Mon 9 2 Mon 2 6. Remove the BVOM from the bay. 2. Ensure the bay configuration jumper is set for standard or split (condensed). 3. Monitor jumpers are labeled M (monitor ) through M6 (monitor 6). Set these jumpers in contiguous groups of four for the range of video outputs to be controlled. Note: When setting monitor 7 and up, subtract multiples of sixteen from the monitor number (7 6 =, =, = 2, and so on). For example, to set monitors 33 36, subtract 32 to obtain monitors Referring to Table 8, set switch S, position to 0 (METHOD ) or (METHOD 2). All other S switch positions are not used. 5. Set the first four switches of switch S2 to identify the video inputs the module is to respond to (Table 8). If the BVOM is in a bay that includes VIMs, its video inputs from that bay only are considered internal. Inputs from other bays are considered external. If the BVOM is in a bay only containing BVOMs, its video inputs are considered external. 6. Referring to Table 9, set the last four switches of switch S2 to identify which group of four video outputs connects to the video inputs. 7. Plug the module into the left-most open BVOM slot. INSTALLATION GUIDE 20 of 64

23 Table 8. VOM tables METHOD : AVOM/BVOM video input identification for up to 024 cameras (0 = OFF, = ON) AVOMs can support up to four external groups and no internal cameras. If expanding a system to more than 024 inputs, use METHOD 2, in which case any AVOMs must be replaced with BVOMs and AVIM firmware must be updated. Internal Camera Group Internal Cameras External Camera Group(s) External Cameras S S2 Switch Settings Switch Setting None None METHOD 2: BVOM video input identification for up to 3200 cameras (0 = OFF, = ON) Internal Camera Group Internal Cameras External Camera Group(s) External Cameras S S2 Switch Settings Switch Setting None None Table 9. BVOM video output identification (0 = OFF, = ON) Video Output S2 Switch Settings ADDL- ADDL-2 ADDL-3 ADDL VOM Tables INSTALLATION GUIDE 2 of 64

24 Connecting Cables. Connect the AD data line from the MegaPower CPU to the DATA LINE IN BNC of the bay. Loop the data line to other bays, if required. 2. Connect video coax cables to VIMs. 3. For bays other than a single bay or the last bay of a series, connect coax cable from the output of the data buffer module to the appropriate input of the VOM or VOMs. Note: Coax cables are not used if VOMs are in the same bay as VIMs and the bay is a single bay or the last bay of a series. In this case, VOMs take data buffer outputs off the backplane of the bay. Note: An ADULP Universal Loop Panel is used when ribbon cable is required to connect VIMs to VOM-4s. The loop panel is typically used when camera numbers exceed 024. For instructions on how to use the ADULP with MegaPower 3200 switching systems, see AD Universal Loop Panel Installation Instructions Connect video output devices, such as monitors or video recorders, to one of the four outputs of each VOM. 5. If using a data buffer module with video loss detection, connect a modular cable from the RJ-45 connector of the data buffer to one of the RS-232 ports on the rear of a MegaPower CPU set for VIDEO LOSS use. Note: When a video loss is detected, the data buffer module transmits a video loss message via the RJ-45 connector according to the alarm contact mode set for the data buffer module. Pins and 2 of this connector also provide a logic level alarm contact. These pins connect to the alarm contact inputs of an AD2096 alarm interface unit, pin to the A input and pin 2 to ground. RJ-45 Connector Pin Definitions Pin Function (RS-232) Alarm Contact Output 2 Alarm Ground 4 Receive Data (RCD) 5 Transmit Data (XMIT) 7 Ground (GND) Note: If the AD200DBVL is less than 2.m (7ft) from the CPU, connect the RS-232 port using the modular cable supplied. If the AD200DBVL is more than 2.m (7ft) from the CPU, or if the alarm contact output is used, connect an 8-pin terminal box to the RS-232 port using the modular cable supplied. Maximum cable length between an RS-232 device and the terminal box is 305m (000ft), using 8AWG shielded, computer grade cable. All American Dynamics equipment is configured as RS-232 DTE (Data Terminal Equipment) devices. For DTE-to-DTE connections, the MegaPower CPU RS-232 port: - XMIT pin connects to RCD (pin 4) of the terminal box going to the AD200DBVL. - RCD pin connects to XMIT (pin 5) of the terminal box going to the AD200DBVL. - Ground connects to GND (pin 7) of the terminal box going to the AD200DBVL. Note: An AD208 port expander connects up to four AD200DBVL modules to the CPU. AD200DBVL-x module connects to port A AD200DBVL-2x module connects to port B AD200DBVL-3x module connects to port C AD200DBVL-4x module connects to port D. INSTALLATION GUIDE 22 of 64

25 Powering Up the Bay. Unscrew the two thumbscrews at the top corners of the bay s front panel. 2. Slowly pull the top of the front panel towards the front and lift it up to remove it. 3. Verify that power to the bay is OFF (the On/Off switch on the front panel should not be lit). 4. Plug the bay s power cord into the required voltage input: AD200N, AD2020N: 20Vac, 50-60Hz AD2020P, AD2020P: Vac, 50-60Hz 5. Press the On/Off switch to turn the bay on. Adjusting Vertical Phase The vertical phase adjustment enables bays to synchronize so vertical roll or a black bar does not occur between each video switch. Switching can be synchronized one of three ways: The ac line (line locked) External vertical drive (generator locked) Composite video input. Use one method for all bays of the system. AC LINE: The most common form of synchronization is to lock the vertical switching point to the ac line. To use this feature, switch the Sync Reference Selection to AC LINE. The ac (50-60Hz) line is then used to determine the vertical timing. If all video inputs use the same ac phase, no roll will occur.. Sync all 256 cameras of camera group to each other. 2. On the data buffer module, connect monitor to the top most BNC. 3. Using an external keyboard, call input to output. 4. On the front panel of the power supply, set the SET UP/NORMAL switch to SET UP. Note: The Sync Test On/Off LED blinks when the sync test switch is in the SET UP position. Note: The vertical interval bar, displayed on output, shows the vertical switch with respect to the picture. 5. The phase adjustment screw, accessed through the hole in the front panel of the power supply, adjusts the phase of the vertical interval synchronization pulse for the switcher with respect to the selected reference. Using a TV alignment tool or equivalent, adjust the position of the vertical interval bar by turning the phase screw until the bar is located as shown in Figure 22. The bar should be visible on the screen and not in the vertical sync. Note: Once the bar is set, no further adjustment is necessary. 6. Select the video input from the next camera group in the system. - If the vertical interval bar is not in the same place as shown in Figure 22, adjust the sync location on the "video device" (such as a video camera) until the bar is towards the bottom of the screen. - If the bar is in a different place than it was in the previous camera, camera roll will occur when switching to that camera. 7. Repeat steps 6 for all remaining camera groups in the system. Note: Before adjusting all the video inputs, quickly scan all inputs to see if only a few are out of phase and adjust accordingly (input one may be the only one out of phase). 8. Once all cameras are synchronized, set the SET UP/NORMAL switch back to NORMAL. EXT V-DRIVE: If an external generator controls the vertical switching point, switch the Sync Reference Selection switch to EXT V-DRIVE (external vertical drive). Generator output voltage should not exceed 5Vp-p.. Connect the drive output from the generator to the EXT SYNC IN BNC on the power supply rear panel. 2. Connect a 75-ohm terminator to the EXT SYNC OUT BNC. 3. If other bays are used, loop the EXT SYNC from input to output for all bays and connect a 75-ohm terminator to the last bay EXT SYNC OUT BNC. INSTALLATION GUIDE 23 of 64

26 EXT CAM: If composite video controls the vertical switching point, switch the Sync Reference Selection switch to EXT CAM (external camera). The composite sync signal should not exceed.vp-p.. Connect the composite sync to the EXT SYNC IN BNC located on the power supply rear panel. 2. Connect a 75-ohm terminator to the EXT SYNC OUT BNC. 3. If other bays are used, loop the EXT SYNC from input to output for all bays and connect a 75-ohm terminator to the last bay EXT SYNC OUT BNC. Figure 22. Placement of setup alignment bar Monitor Adjusting the Title Vertically. Press and hold the V button. The title shifts down to the bottom of the picture, through the vertical interval bar, and to the bottom of the next picture in a repeating process. Adjusting Title Brightness. Press and hold the B button. The brightness control has eight levels to change characters from white to black. The title steps through each level until the button is released. Adjusting for Overlapping Titles from a Satellite Matrix System: As shown in Figure 23:. If the title is already positioned for the monitor (in this case Monitor A), set the rotary switch marked A..D to the position opposite the already selected monitor position (Position A ). 2. Press and hold the V button until the title from the satellite system is at the top of the screen. Figure 23. Adjusting overlapping titles Alignment bar D.. A H V B Main Picture Satellite Picture Press and hold V button. Satellite Picture Mon A Mon A Mon A Adjusting Title Criteria Referring back to Figure 8: The VOM has four video outputs, each with title information that can be adjusted horizontally, vertically, and for brightness. The title for each video output is controlled using a 0-position rotary switch marked A..D (A..D is short for outputs A, B, C, and D). To select video output A, set the rotary switch to position A. To select video output B, C, or D, move the switch clockwise accordingly. The switch can be left in any position once title adjustment is complete. Table 0. Rotary switch versus monitor selection A B C D Reattaching the Front Panel After all setup adjustments have been made, reattach the front panel by slipping its bottom into the slot at the bottom of the bay. Push its top towards the bay and tighten the two thumb screws. Adjusting the Title Horizontally. Press and hold the H button. The title shifts right to the end point, returns to the left-most position, and begins to shift to the right again until released. INSTALLATION GUIDE 24 of 64

27 Specifications Operational Bandwidth... 7MHz Frequency response...±0.5db to 2MHz S/N ratio...65db (Vp-p vs. Vrms noise) Crosstalk Adjacent channels... 55dB (at 3.58MHz) Input-to-input... 70dB (at 3.58MHz) Differential delay... ±.0 Differential phase....5 or better Differential gain....0% or better Tilt % or better Gain...Unity (±db) Return loss (input/output)... 40dB DC level (video signal)... 0V Switching...Complete switching of cross-point matrix. EIA RS-70 and NTSC, CCIR and PAL Switching speed... <20ms (typical) Keyboard/Receiver control time... 20ms (typical) Phase adjustment...80 vertical interval adjustment for switching bay Non-volatile memory...setup information saved in permanent flash memory On-Screen Text...Date/time, video input number, video input title, site number, site title monitor status, user/keyboard number Character Set...Alpha numeric Connections Video inputs Vp-p, composite BNC Video outputs...vp-p, composite BNC AD data line in/out... Two BNC connectors External sync in/out... Two BNC connectors Mechanical Mounting... Designed for EIA-30-D and IEC standard 482.6mm (9in) electronic racks Dimensions (H x W x D) x 483 x 470 mm (0.5 x 9 x 8.5in) Weight... 28kg (60 lbs), fully loaded bay (with 6 modules) Environmental Operating temperature... 0 to 40 C (32 to 04 F) Storage temperature to 70 C ( 40 to 55 F) Humidity... 0 to 95% RH (non-condensing) Electrical Power...40W nominal, 60W max. (with 6 modules) AD200N, AD2020N... 20Vac (±0%), 50-60Hz AD200P, AD2020P Vac (auto-sensing) Max Operational Limit V, 47-63Hz INSTALLATION GUIDE 25 of 64

28 Declarations Regulatory Compliance Emissions...47 CFR Part 5 EN55022 Immunity... EN Safety... EN UL2044 FCC COMPLIANCE: This equipment has been tested and found to comply with the limits for a Class A digital device, pursuant to part 5 of the FCC Rules. These limits are designed to provide reasonable protection against harmful interference when the equipment is operated in a commercial environment. This equipment generates, uses, and can radiate radio frequency energy and, if not installed and used in accordance with the instruction manual, may cause harmful interference to radio communications. Operation of this equipment in a residential area is likely to cause harmful interference in which case the user will be required to correct the interference at their own expense. EQUIPMENT MODIFICATION CAUTION: Equipment changes or modifications not expressly approved by Sensormatic Electronics Corporation, the party responsible for FCC compliance, could void the user's authority to operate the equipment and could create a hazardous condition. Other Declarations Thank you for using American Dynamics products. We support our products through an extensive and worldwide network of dealers. The dealer, through whom you originally purchased this product, is your point of contact if you have a need for service or support. Our dealers are fully empowered to provide the very best in customer service and support. Dealers should contact American Dynamics at (800) or (56) or on the web at WARRANTY DISCLAIMER: Sensormatic Electronics Corporation makes no representation or warranty with respect to the contents hereof and specifically disclaims any implied warranties of merchantability or fitness for any particular purpose. NOTICE: The information in this manual was current when published. The manufacturer reserves the right to revise and improve its products. All specifications are therefore subject to change without notice. LIMITED RIGHTS NOTICE: For units of the Department of Defense, all documentation and manuals were developed at private expense and no part of it was developed using Government Funds. The restrictions governing the use and disclosure of technical data marked with this legend are set forth in the definition of limited rights in paragraph (a) (5) of the clause of DFARS Unpublished - rights reserved under the Copyright Laws of the United States. TRADEMARK NOTICE: American Dynamics and Sensormatic are trademarks or registered trademarks of Sensormatic Electronics Corporation. Other product names mentioned herein may be trademarks or registered trademarks of Sensormatic or other companies. COPYRIGHT: Under copyright laws, the contents of this manual may not be copied, photocopied, reproduced, translated or reduced to any electronic medium or machinereadable form, in whole or in part, without prior written consent of Sensormatic Electronics. MDR /08 INSTALLATION GUIDE 26 of 64