Instruction Manual Optima Distribution Matrix AutoPatch Matrix Switchers R EV E : 4 / 2 3 / 2 0 1 0
AMX Limited Warranty and Disclaimer This Limited Warranty and Disclaimer extends only to products purchased directly from AMX or an AMX Authorized Partner which include AMX Dealers, Distributors, VIP’s or other AMX authorized entity.
Contents Contents ESD Warning .......................................................................................................1 Important Safety Information and Instructions ....................................................2 Information et directives de sécurité importantes...............................................3 Notices ................................................................................................................4 Overview and General Specifications ....................
Contents Wideband Video (300 MHz) I/O Boards ........................................................... 47 Applicability Notice ............................................................................................................... 47 Wideband Video (300 MHz) I/O Boards Specifications.......................................................... 48 Attaching Cables ...................................................................................................................
Contents Stereo Audio I/O Boards ...................................................................................91 Applicability Notice ............................................................................................................... 91 Stereo Audio I/O Boards Specifications ................................................................................ 92 Attaching Wires .....................................................................................................................
Contents Appendix B – Programmer’s Interface for System Diagnostics....................... 135 System Component Information .......................................................................................... 135 Using BCS to Access System Diagnostic Information........................................................... 136 Splash Screen Examples ......................................................................................................
ESD Warning ESD Warning To avoid ESD (Electrostatic Discharge) damage to sensitive components, make sure you are properly grounded before touching any internal materials. When working with any equipment manufactured with electronic devices, proper ESD grounding procedures must be followed to ensure people, products, and tools are as free of static charges as possible. Grounding straps, conductive smocks, and conductive work mats are specifically designed for this purpose.
Important Safety Information and Instructions Important Safety Information and Instructions When using and installing your AMX AutoPatch product, adhere to the following basic safety precautions. For more information about operating, installing, or servicing your AMX AutoPatch product, see your product documentation. Read and understand all instructions before using and installing AMX AutoPatch products. Use the correct voltage range for your AMX AutoPatch product.
Information et directives de sécurité importantes Information et directives de sécurité importantes Veuillez vous conformer aux directives de sécurité ci-dessous lorsque vous installez et utilisez votre appareil AMX AutoPatch. Pour de plus amples renseignements au sujet de l’installation, du fonctionnement ou de la réparation de votre appareil AMX AutoPatch, veuillez consulter la documentation accompagnant l’appareil.
Notices Notices Copyright Notice AMX© 2010 (Rev E), all rights reserved. No part of this publication may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechanical, photocopying, recording, or otherwise, without the prior written permission of AMX.
Notices Trademark Notices AMX®, AutoPatch®, NetLinx®, and InstaGate® are trademarks of AMX. Windows®, Windows 2000®, Windows NT®, and Windows XP Professional® are registered trademarks of Microsoft Corporation. HyperTerminal® is a copyright product of Hilgraeve Inc. 3M®, Desco®, Richmond Technology®, and Plastic Systems® are registered trademarks. Neuron® and LonTalk® are registered trademarks of Echelon. TosLink® is a registered trademark of the Toshiba Corporation.
Notices 6 Optima Instruction Manual
Overview and General Specifications Overview and General Specifications Applicability Notice The information in this manual applies to the following Optima pre-engineered systems, custom systems, input/output (I/O) boards, and expansion boards: Optima Pre-Engineered Systems All Optima pre-engineered systems are numbered FGP46-xxxx-xxx (e.g., FGP46-0808-007).
Overview and General Specifications XXX Optima Video I/O Boards and Part # (Continued) Signal Configuration Part # 8x8 FG1046-437 16x16 FG1046-482 16x24 FG1046-542 Wideband Video (300 MHz) (BNC Connectors) HV Sync (BNC Connectors) 20x4 FG1046-467 20x20 FG1046-410 24x4 FG1046-503 24x16 FG1046-428 36x4 FG1046-419 8x8 HV (Hi-Z) (dual BNCs) FG1046-443 16x16 (Hi-Z) FG1046-569 16x24 (Hi-Z) FG1046-566 20x4 (Hi-Z) FG1046-563 20x20 (Hi-Z) FG1046-560 24x4 (Hi-Z) FG1046-557 24x16 (Hi-
Overview and General Specifications Optima Digital Audio I/O Boards and Part # Signal Configuration Part # S/PDIF (coaxial) 8x8 FG1046-458 TosLink (optical) 8x8 FG1046-455 Four S/PDIF plus four TosLink 8x8 FG1046-461 Optima CatPro I/O Boards and Part # Signal RGBHV+Stereo (RJ-45 Connectors) Configuration Part # 4x8 FG1046-581 8x8 FG1046-575 Note: CatPro boards are used in conjunction with CatPro RX (Receiver) FG1010-48-01.
Overview and General Specifications Optima Features (continued) Local presets allow quick recall of a pre-programmed set of switches with a single command; multiple presets can exist within a system at the same time Ships with free AMX AutoPatch matrix switcher configuration software, XNConnect Standard RS-232 (Control) port Board upgrade potential Optional expansion boards with a TCP/IP port (3 RU only) or an XNNet port (2 RU only) Volume control (standard audio) on each output Audio connections support b
Overview and General Specifications Front View The enclosure, which is the structural basis of the Optima Distribution Matrix, is available in many convenient pre-engineered sizes or can be custom built for your installation. An Optima enclosure may have either a front control panel (CP-15 or CP-20A) or a blank front panel. Although control panels are optional, we recommend one per system for system verification, redundant control, and troubleshooting.
Overview and General Specifications Rear View Components CPU/Control board Power receptacle and specifications Input/output boards (number will vary depending on enclosure size, and slots may be empty depending on the configuration) Two expansion/control slots (may contain boards for communication interfaces, etc.) Serial number The following sections briefly introduce the hardware on the rear of the enclosure.
Overview and General Specifications Power Receptacle The universal power receptacle is in the lower left hand corner on the rear of the enclosure (FIG. 4). Maximum power specifications are on the power receptacle. The power receptacle will accept all major international standard power sources. (Standard US power cords are provided for installations within the US.) The fuse is internal and is not field serviceable. If you believe the fuse needs to be replaced, contact technical support (see page 38).
Overview and General Specifications System Serial Number The system’s serial number is normally located in two places on the enclosure. When viewed from the rear, one serial number label is on the left expansion plate (FIG. 4 on page 12). The second serial number label is on the left side of the enclosure at the bottom edge near the power receptacle. The label on the side will also have the enclosure number (referred to as the chassis number).
Overview and General Specifications Configuration Information and Control Options Configuration Information The configuration of an Optima system specifies routing and control information for that particular model (for model information, see the “Applicability Notice” on page 7). Most Optima systems use 3 virtual matrices for switching signals: VM 0 = audio-follow-video, VM 1 = video, and VM 2 = audio. Custom systems may vary depending on the installation requirements.
Overview and General Specifications BCS Serial Control Protocol The Optima can be controlled with an external serial controller that sends and receives ASCII characters via its Control (RS-232) serial port. AMX AutoPatch has developed a command language, BCS (Basic Control Structure) protocol, for programming control operations and for diagnostic purposes. BCS commands can be entered into a terminal emulation program (e.g., HyperTerminal) running on a PC.
Installation and Setup Installation and Setup Site Recommendations When placing the enclosure, follow the recommendations and precautions in this section to reduce potential installation and operation hazards. Environment Choose a clean, dust free, (preferably) air-conditioned location. Avoid areas with direct sunlight, heat sources, or high levels of EMI (Electromagnetic Interference). To make control panel operations easier, mount the enclosure with the control panel in the rack at eye level.
Installation and Setup Mechanical (Rack) Loading When installing equipment in a rack, distribute the weight to avoid uneven mechanical loading. Circuit Overloading When connecting the equipment to the supply circuits, be aware of the effect that overloading the circuits might have on over-current protection and supply wiring. Reliable Earthing (Grounding) Reliable earthing of rack-mounted equipment should be maintained. If not using a direct connection to the branch circuit (e.g.
Installation and Setup Rack Installation and System Setup The Optima Distribution Matrix enclosure can be mounted in a standard EIA 19 in. (48.26 cm) rack. Rack installation ears are included, and directions for mounting the rack ears are included in the rack installation instructions (see page 20). Important: The system requires at least one empty rack unit above and below the enclosure to allow adequate airflow; three empty rack units are recommended.
Installation and Setup Installation Procedure A flow chart showing the installation sequence is in FIG. 6. The procedure following provides general steps with references to detailed information found in later sections of the manual. FIG. 6 Installation procedure Caution: To prevent overheating and airflow restriction, avoid placing high heat producing equipment directly above or below the enclosure.
Installation and Setup 6. Apply power to the system according to the power-up procedure; see “Applying Power and Startup” on page 33. Note: We recommend using a surge protector and/or an AC line conditioner. 7. Execute a test switch to ensure the system is working properly; see “Executing a Test Switch” on page 36. 8. When the test switch works correctly, attach the remaining source and destination devices.
Installation and Setup Linking Enclosures Linking enclosures allows control information to pass between them. Optima enclosures are linked using the Enc Link (Ethernet) ports* on the CPU boards; the Ethernet traffic between these ports maintains consistent control speed. In a multiple-enclosure system, the enclosure with the control panel or external controller receives control information and passes on relevant information to the other enclosures via the links.
Installation and Setup Link Cables and Equipment AMX provides link cables and equipment for enclosures that are ordered as part of a linked system. The link cables and equipment are also available for customers who want to link enclosures that were not originally ordered to do so. For details, contact your AMX representative.
Installation and Setup Linking an Optima to Another Enclosure with an RJ-45 Ethernet Port An Optima can be directly linked to another Optima, an Optima SD, a Precis SD, an Epica DG, an Epica DGX 32, or an Epica DGX 144 via the RJ-45 Ethernet ports. The total distance between the two linked enclosures cannot exceed 100 ft. (30.5 m).
Installation and Setup Linking an Optima to an Enclosure with a BNC Ethernet Port An Optima enclosure can be linked to an enclosure with an Ethernet 10Base-2 connector (Modula, Modula CatPro, Epica-128, or Epica-256) by using a Media Converter. Additional 10Base-2 enclosures can be daisy-chained off the first one. Important: The total distance between the two end terminators in a multiple-enclosure system cannot exceed 10 ft. (3.05 m).
Installation and Setup Linking an Optima Using a Media Converter and Multi-Port Switch Linking an Optima enclosure to multiple other types of enclosures (other than linking in a daisy chain off an enclosure with a 10Base-2 / BNC connector) requires a Multi-Port Switch and RJ-45 straight-through patch cables. Depending on the other types of enclosures, a Media converter(s) and RG-58 coax cable(s) may also be required. FIG.
Installation and Setup Important: Attach 50-ohm termination connectors to the open ends of the T-connectors on the Media Converter and on the last enclosure on the cable run. To link enclosures* with a BNC Ethernet connector to a Multi-Port Switch: 1. Fasten a T-connector to the Ethernet BNC connector on the enclosure’s CPU. 2. Attach an RG-58 coax cable to the T-connector. 3. If applicable – Attach additional enclosures with T-connectors and RG-58 coax cables.** 4.
Installation and Setup Attaching External Controllers The Optima can be controlled by attaching an external control device that uses one of the communication protocols listed below: BCS (Serial) – ASCII sent over a null modem serial cable via the serial port XNNet – AMX AutoPatch protocol via all ports (including serial); AMX AutoPatch control and accessory devices connect via the Remote (XNNet) connector TCP/IP – See the APWeb Expansion Board chapter on page 111 or the APWeb Server Module’s documentation
Installation and Setup Attaching Serial Controllers An external serial controller is any device that can send and receive ASCII code over an RS-232 (null modem) serial cable attached to the Control port on the rear of the enclosure. PCs are common serial controllers. Once a PC is attached to the Optima, the system can be controlled by running APControl software on the attached PC (see the AMX AutoPatch CD). The system can also be controlled by entering BCS commands into a terminal emulation program (e.g.
Installation and Setup 2. Plug one end of the null modem serial cable into the Control (RS-232) port on the enclosure (FIG. 13). Null modem serial cable FIG. 13 Attach null modem serial cable to serial port 3. Plug the other end of the serial cable into the serial port on the PC (or serial controller/device). 4. Open the serial communication software and set the PC’s port settings to match the Optima default port settings (see table to the right).
Installation and Setup Attaching Remote XNNet Control Devices A remote XNNet control device is any device that sends and receives XNNet protocol over the Remote port. AMX AutoPatch XNNet control devices include remote control panels (e.g., the CP-15 and CP-20A), as well as Single Bus Controllers (SBCs) and Preset SBCs. The instructions below are for attaching a device to the Remote port, which is located on the CPU board (3 RU enclosures) or on the XNNet Expansion board (2 RU enclosures).
Installation and Setup Attaching Input and Output Cables Input and output connectors are the attachment points for source and destination devices that connect to the system. Viewed from the rear of an Optima enclosure, the inputs (for sources) are on the left side of each board, and the outputs (for destinations) are on the right side of the board. Video BNC connectors are color coded; the white connectors are inputs and the black connectors are outputs.
Installation and Setup Applying Power and Startup The universal power receptacle on the enclosure will accept all major international standard power sources. Standard US power cords are provided for installations within the US. Maximum power specifications are on the power receptacle (also listed on page 14). Always use an earth-grounded power cord / system with an Optima. The source electrical outlet should be installed near the Optima, easily accessible, and properly grounded.
Installation and Setup Control Panel Startup After applying power and turning on the enclosure(s), the LCD on the control panel illuminates and displays the menu screen. FIG. 16 and FIG. 17 illustrate examples of control panel startup screens. The system is ready for a test switch (see page 36). CP-15 Function Menu screen Power indicator FIG. 16 CP-15 startup screen CP-20A Main Menu screen Power indicator FIG.
Installation and Setup Serial Control Device Startup If you have not already done so, attach the serial control device to the Control port on the enclosure (see page 28) and open the control program. AMX Control Devices The Optima is compatible with a number of AMX control devices. For control programming information, see the instruction manual for the specific interface. APControl 3.0 If you are using APControl 3.0, install and open the program. Follow the directions in the setup wizard.
Installation and Setup Executing a Test Switch Execute a test switch to verify the system is working properly before attaching all inputs and outputs. Aside from having signal cables (and a controller if applicable) attached, the system is ready to execute switches when it ships from the factory.
Installation and Setup BCS Commands To enter BCS commands, the system must be attached to a serial control device (see “Attaching External Controllers” on page 28) running a terminal emulation program (e.g., Windows® HyperTerminal). The settings on the PC serial communication software and the enclosure must correspond to each other. For setting information, see the table on page 30.
Installation and Setup Technical Support Before contacting technical support with a question, please consult this manual. If you still have questions, contact your AMX representative or technical support. Have your system’s serial number ready. The system’s serial number is normally located in two places on the enclosure: on the left rear and on the left side near the power receptacle. We recommend recording your system’s serial number in an easily accessible location.
Standard Video I/O Boards Standard Video I/O Boards Applicability Notice FIG. 19 Standard video input/output boards (with a stereo audio board) This chapter pertains to Optima standard video input/output boards contained in pre-engineered systems and custom systems. The table below provides information on the types of standard video boards and their part numbers. Standard Video I/O Boards Note: Specifications for the following boards are listed on page 40.
Standard Video I/O Boards Standard Video I/O Boards Specifications Applies to I/O boards FG1046-413, FG1046-422, FG1046-431, FG1046-440, FG1046-470, FG1046-485, FG1046-515, and FG1046-545. These boards come in a number of pre-engineered systems or can be ordered individually for custom systems. Specifications Parameter Conditions Value Frequency Response 1 to All ±3 dB to 50 MHz or better ±1 dB to 15 MHz or better Crosstalk (adjacent channel) f = 5 MHz <-60 dB Differential Gain* f = 3.58 MHz <0.
Standard Video I/O Boards Attaching Cables When attaching standard video input and output cables, refer to the sheet labeled “AutoPatch Connector Guide” that ships with the system. The sheet shows where to attach each cable on the rear of each enclosure. Follow the sheet exactly; the system was programmed at the factory to operate only as indicated on the sheet. For multiple-enclosure systems, each enclosure will be numbered (e.g.
Standard Video I/O Boards 42 Optima Instruction Manual
S-Video I/O Boards S-Video I/O Boards Applicability Notice FIG. 21 Optima S-Video I/O boards (shown with a stereo audio board and a Y/c board) This chapter pertains to the Optima S-Video input/output boards in the table below. These two boards come in a number of pre-engineered systems or can be ordered individually for custom systems.
S-Video I/O Boards Attaching Cables When attaching S-Video input and output cables, refer to the sheet labeled “AutoPatch Connector Guide” that ships with the system. The sheet shows where to attach each cable on the rear of each enclosure. Follow the sheet exactly; the system was programmed at the factory to operate only as indicated on the sheet. For multiple-enclosure systems, each enclosure will be numbered (e.g., “Chassis 1 of 3”) on a label located on the left side near the power receptacle.
Y/c I/O Board Y/c I/O Board Applicability Notice FIG. 24 Optima Y/c I/O boards This chapter pertains to Optima Y/c input/output board, FG1046-476 (8x8), contained in pre-engineered systems and custom systems. Y/c I/O Board Specifications Applies to I/O board FG1046-476. This board comes in a number of pre-engineered systems or can be ordered individually for custom systems.
Y/c I/O Board Attaching Cables When attaching Y/c input and output cables, refer to the sheet labeled “AutoPatch Connector Guide” that ships with the system. The sheet shows where to attach each cable on the rear of each enclosure. Follow the sheet exactly; the system was programmed at the factory to operate only as indicated on the sheet. For multiple-enclosure systems, each enclosure will be numbered (e.g., “Chassis 1 of 3”) on a label located on the left side near the power receptacle.
Wideband Video (300 MHz) I/O Boards Wideband Video (300 MHz) I/O Boards Applicability Notice FIG. 26 Wideband video I/O boards This chapter pertains to Optima wideband video (300 MHz) input/output boards contained in pre-engineered systems and custom systems. The table below provides information on the types of wideband video boards and their numbers.
Wideband Video (300 MHz) I/O Boards Wideband Video (300 MHz) I/O Boards Specifications Applies to I/O boards FG1046-410, FG1046-419, FG1046-428, FG1046-437, FG1046-467, FG1046-482, FG1046-503, and FG1046-542. These boards come in a number of pre-engineered systems or can be ordered individually for custom systems. Specifications Parameter Conditions Value Frequency Response 1 to All ± 3.0 dB to 300 MHz or better ± 1.5 dB to 100 MHz or better Frequency Response, FG1046-410 only 1 to All ± 3.
Wideband Video (300 MHz) I/O Boards Attaching Cables When attaching wideband video input and output cables, refer to the sheet labeled “AutoPatch Connector Guide” that ships with the system. The sheet shows where to attach each cable on the rear of each enclosure. Follow the sheet exactly; the system was programmed at the factory to operate only as indicated on the sheet. For multiple-enclosure systems, each enclosure will be numbered (e.g.
Wideband Video (300 MHz) I/O Boards 50 Optima Instruction Manual
Hi-Z Sync and HV Hi-Z Sync I/O Boards Hi-Z Sync and HV Hi-Z Sync I/O Boards Applicability Notice HI-Z sync boards (shown with audio board) HV Hi-Z HV sync board (shown with wideband video boards) FIG. 28 Hi-Z sync and HV Hi-Z sync boards This chapter pertains to Optima Hi-Z and HV Hi-Z sync input/output boards contained in pre-engineered systems and custom systems. The table below provides information on the types of Hi-Z and HV Hi-Z sync boards and their numbers.
Hi-Z Sync and HV Hi-Z Sync I/O Boards Hi-Z Sync and HV Hi-Z Sync I/O Boards Specifications Applies to Hi-Z and HV Hi-Z sync I/O boards listed in the table on the previous page. These boards come in a number of pre-engineered systems or can be ordered individually for custom systems. Specifications Parameter Conditions Input Level (max.) Value 0 to +5.5 V Input Impedance 22 kohms Output Level (max.) 0 to +5.
RGBHV/HD-15 I/O Boards RGBHV/HD-15 I/O Boards Applicability Notice FIG. 30 8x4 RGBHV/HD-15 I/O board (shown with an 8x8 digital audio board) This chapter pertains to Optima RGBHV/HD-15 input/output boards contained in pre-engineered systems and custom systems. The table below provides information on RGBHV/HD-15 boards and their numbers. RGBHV/HD-15 I/O Boards Note: Specifications for the following boards are listed on page 54.
RGBHV/HD-15 I/O Boards RGBHV/HD-15 I/O Boards Specifications Applies to RGBHV/HD-15 I/O boards FG1046-497, FG1046-530, FG1046-536, and FG1046-593. These boards come in some pre-engineered systems or can be ordered individually for custom systems. Specifications Parameter Conditions Value Frequency Response 1 to All ±3.0 dB to 300 MHz or better ±1.5 dB to 100 MHz or better Crosstalk f = 5 MHz f = 30 MHz f = 150 MHz <-60 dB <-40 dB <-35 dB Signal to Noise Ratio (SNR) Vin = 0.
RGBHV/HD-15 I/O Boards Attaching Cables When attaching RGBHV/HD-15 input and output cables, refer to the sheet labeled “AutoPatch Connector Guide” that ships with the system. The sheet shows where to attach each cable on the rear of each enclosure. Follow the sheet exactly; the system was programmed at the factory to operate only as indicated on the sheet. For multiple-enclosure systems, each enclosure will be numbered (e.g., “Chassis 1 of 3”) on a label located on the left side near the power receptacle.
RGBHV/HD-15 I/O Boards 56 Optima Instruction Manual
SD-SDI and HD-SDI Digital Video I/O Boards SD-SDI and HD-SDI Digital Video I/O Boards Applicability Notice SD-SDI connectors HD-SDI connectors FIG. 33 SD-SDI and HD-SDI digital video I/O boards This chapter pertains to Optima SD-SDI and HD-SDI digital video input/output boards contained in pre-engineered systems and custom systems. The table below provides information on the types of digital video boards and their numbers.
SD-SDI and HD-SDI Digital Video I/O Boards SD-SDI I/O Boards Specifications Applies to I/O boards FG1046-491 and FG1046-527. These boards come in a number of pre-engineered systems or can be ordered individually for custom systems. Specifications Bit Rates 143 Mbps, 177 Mbps*, 270 Mbps, 360 Mbps, 540 Mbps* Auto Data Rate Lock Yes Data Type 8 bit or 10 bit Standard Conforms to SMPTE 259M, SMPTE 344M Input Level (max.) 0.8 Vpp, ±10% Input Impedance 75 ohms Auto Cable Equalization Up to 1148 ft.
SD-SDI and HD-SDI Digital Video I/O Boards Attaching Cables When attaching SD-SDI and HD-SDI input and output cables, refer to the sheet labeled “AutoPatch Connector Guide” that ships with the system. The sheet shows where to attach each cable on the rear of each enclosure. Follow the sheet exactly; the system was programmed at the factory to operate only as indicated on the sheet. For multiple-enclosure systems, each enclosure will be numbered (e.g.
SD-SDI and HD-SDI Digital Video I/O Boards 60 Optima Instruction Manual
DVI (Digital Visual Interface) I/O Boards DVI (Digital Visual Interface) I/O Boards Applicability Notice 8x8 DVI I/O boards 4x4 DVI I/O boards FIG. 36 Optima 8x8 and 4x4 DVI input/output boards This chapter pertains to Optima DVI input/output boards contained in pre-engineered systems and custom systems. The table below provides information on the types of DVI boards and their numbers. DVI I/O Boards Configuration Board Part # Note: Specifications for the 4x4 board are listed on page 62.
DVI (Digital Visual Interface) I/O Boards 4x4 DVI I/O Board Specifications Applies to I/O board FG1046-479. This board comes in a number of pre-engineered systems or can be ordered individually for custom systems. Specifications Parameter Value Data Rate (max.) 4.95 Gbps Pixel Clock (max.) 165 MHz Resolution Support Up to 1600x1200 @ 60 Hz refresh rate Signal Type DVI-D (Single Link) DDC/EDID Support EDID provided by the Optima HDCP Support No Input Voltage (nominal) 1.
DVI (Digital Visual Interface) I/O Boards EDID Resolutions Supported through Local DDC* for 4x4 DVI Board Standard and established timings are provided in the tables below. Standard Timings Standard Timing Identification Resolution Refresh Rate Max.** ID 1 1600x1200 (This is the preferred timing identified in the EDID.
DVI (Digital Visual Interface) I/O Boards 8x8 DVI I/O Board Specifications Applies to I/O board FG1046-659. This board comes in a number of pre-engineered systems or can be ordered individually for custom systems. Specifications Parameter Data Rate (max.) Value 4.95 Gbps Pixel Clock (max.) 165 MHz Resolution Support Up to 1920x1200 @ 60 Hz refresh rate Signal Type DVI-D (Single Link) DDC/EDID Support EDID provided by the Optima. EDID is user programmable.
DVI (Digital Visual Interface) I/O Boards EDID Resolutions Supported through Local DDC* for 8x8 DVI Board Standard and established timings are provided in the tables below. Standard Timings Standard Timing Identification Resolutions Refresh Rate Max.** ID 1 1920x1200 (This is the preferred timing identified in the EDID.
DVI (Digital Visual Interface) I/O Boards Attaching Cables When attaching DVI input and output cables, refer to the sheet labeled “AutoPatch Connector Guide” that shipped with the system. The sheet shows where to attach each cable on the rear of each enclosure. Tip: For best results, use cable that meets or exceeds DVI compliant specifications. Follow the “AutoPatch Connector Guide” exactly; the system was programmed at the factory to operate only as indicated on the sheet.
DVI (Digital Visual Interface) I/O Boards 8x8 DVI Board: Special Information Application Code for the 8x8 DVI Board Important: The Optima 8x8 DVI board requires Application Code v1.2.2 or later to work properly (to determine the version, see directions below). If the enclosure’s Application Code version is not at least v1.2.2, contact technical support (see page 38) for instructions on upgrading the Application Code. To determine the enclosure’s Application Code version: 1.
DVI (Digital Visual Interface) I/O Boards Checking for Potential Over-Current Shutdown (applies to initial setup of Optima system) To check for potential over-current shutdown: 1. Follow the instructions for initial installation starting on page 19. For the 8x8 DVI board only, modify Step 4 on page 20 by following Steps 2 through 9 below. 2. Attach the first destination device to Output 1. 3. Cycle power to the Optima and the first destination device. 4.
DVI (Digital Visual Interface) I/O Boards The EDID Programmer (for use with 8x8 DVI board only) EDID Programmer software is provided for re-programming the EDID EEPROM chips on the Optima 8x8 DVI board (FG1046-659) if necessary. This software is available on the AMX AutoPatch CD or at www.amx.com. Note: The Optima 4x4 DVI board (FG1046-479) does not currently support the EDID Programmer.
DVI (Digital Visual Interface) I/O Boards Keep in mind that the EDID information for some equipment may not be compatible with the remaining equipment even with programming. In those cases, the signals will have limited routing options. Tip: If the signal from some of the equipment can only be routed to part of the destinations due to incompatible EDIDs, control for the system can be simplified by creating a separate virtual matrix (level) for the inputs and outputs involved.
DVI (Digital Visual Interface) I/O Boards Installing the EDID Programmer PC System Requirements for EDID Programmer v1.2.0 Windows XP Professional© Minimum Hardware: 166 MHz, 128 MB RAM, 20 MB of free disk space*, 800x600 display, serial port, video card with dual outputs** Recommended Hardware: 2.0 GHz, 512 MB RAM* * The installation process requires 20 MB of disk space for the EDID Programmer installer. Once installed, the EDID Programmer requires 5 MB of disk space.
DVI (Digital Visual Interface) I/O Boards Using cable adapters 2. Connect a DVI cable to the PC using the PC’s spare monitor port (if your laptop has an HD-15 [VGA] port, see “Using Cable Adapters below”). 3. Connect the open end of the DVI video cable to the destination device (typically a monitor) from which the EDID information needs to be read. 4. Click the Refresh Display List button to update the Available Displays drop down list. 5.
DVI (Digital Visual Interface) I/O Boards 7. Click the Query AutoPatch Device button to obtain the XNNet address from the enclosure. Note: If your laptop has an HD-15 (VGA) port, see “Using Cable Adapters” on page 72 for information on connecting an HD-15 (VGA) port to a DVI port. 8. Attach a DVI cable to the PC using the PC’s spare monitor port. 9. Attach the open end of the DVI cable to the DVI input connector on the Optima that requires programming. 10.
DVI (Digital Visual Interface) I/O Boards 74 Optima Instruction Manual
HDMI I/O Board HDMI I/O Board Applicability Notice FIG. 42 HDMI I/O board in pre-engineered system AVS-OP-0808-JD0 This board chapter pertains to the Optima HDMI I/O (Input/Output) board in pre-engineered system AVS-OP-0808-JD0. The board can also be ordered as part of a custom system. 8x8 HDMI Pre-engineered System Note: Specifications for the 8x8 HDMI board in this system are on page 76 through page 78.
HDMI I/O Board HDMI I/O Board Specifications Applies to the HDMI I/O board in system FGP46-0808-JD0 and to HDMI I/O board FG1046-614. Specifications Compatible Formats HDMI 1.3a (HDCP 1.3), DVI 1.0 Data Rate (max.) 4.95 Gbps Pixel Clock (max.) 165 MHz Progressive Resolution Support 480p up to 1920x1200 @ 60 Hz Interlaced Resolution Support 480i, 576i, 1080i Audio Format Support Dolby Digital,* DTS,* L-PCM Audio Resolution 16 bit to 24 bit Audio Sample Rate 32 kHz, 44.
HDMI I/O Board EDID Resolutions Supported through Local DDC for 8x8 HDMI Board Standard and established timings are provided in the tables following along with detailed timing blocks. Important: The EDID can be re-programmed to support additional resolutions through the local DDC using the EDID Programmer (see page 69). If you are experiencing video or audio problems, be sure to verify that the destination device does not support Dolby or DTS or high PCM frequency rates before reprogramming the EDID.
HDMI I/O Board CEA Video Information Code (VIC) Formats VIC # Resolution Refresh Rate and Aspect Ratio VIC = 1 640x480p 59.94/60 Hz 4:3 VIC = 2 720x480p 59.94/60 Hz 4:3 VIC = 3 720x480p 59.94/60 Hz 16:9 VIC = 4 1280x720p 59.94/60 Hz 16:9 VIC = 5 1920x1080i 59.94/60 Hz 16:9 VIC = 6 720(1440)x480i 59.94/60 Hz 4:3 VIC = 7 720(1440)x480i 59.94/60 Hz 16:9 VIC = 14 1440x480p 59.94/60 Hz 4:3 VIC = 15 1440x480p 59.94/60 Hz 16:9 VIC = 16 Native 1920x1080p 59.
HDMI I/O Board Attaching Cables When attaching HDMI cables, refer to the sheet labeled “AutoPatch Connector Guide” that shipped with the system. The sheet shows where to connect the cables on the rear of each enclosure. (Multipleenclosure systems have an enclosure number sticker on the rear of each enclosure.) Follow the sheet exactly; the system was programmed at the factory to operate only as indicated on the sheet.
HDMI I/O Board Overview – Optima Systems with HDMI The Optima HDMI I/O board provides true matrix switching for complete distribution of high resolution digital video and embedded audio (cannot breakaway the audio) from 8 sources to any or all of 8 destinations.
HDMI I/O Board Unsuccessful Transmission in System Note: Be sure the destination devices support the resolution of the source device. If an Optima HDMI system does not successfully transmit the protected content to any of the routed sinks, it may indicate one of the following conditions: Invalid key – The Optima output connector detected an invalid authentication key on the destination device. Non-compliant device – The sink device is not HDCP compliant or has had its authentication key revoked.
HDMI I/O Board Four Examples of HDCP Source Sink Support (FIG. 44 through FIG. 47): The next four figures illustrate system setups in which the source device supports a maximum of 3 sinks downstream of the first repeater (R1) with varying numbers of repeaters and destinations. Source Device Optima (Repeater) Destination Devices FIG. 44 Example #1 – Source device supports 3 sinks (three destination devices) downstream of R1 Destination Devices Repeater Optima (Repeater) Source Device FIG.
Example Determining Sink Support HDMI I/O Board Determining Sink Support Maximum on a Source Device Determining how many sinks the source can support is necessary to ensure the system runs smoothly. This section is intended to help analyze the system based on the types of source devices used, so any limits imposed by the source devices within the matrix switching system can be addressed.
HDMI I/O Board Example of Determining Sink Support (FIG. 48): FIG. 48 illustrates a source device that was checked and found to support only 5 sinks past R1. The check included the following: From a clear matrix state (the cache is clear), the source device was routed to Outputs 1, 2, 3, 4, and 5 one at a time as a stable image appeared on each destination device. When attempting to route the source device to the sixth output, all displays lost content.
HDMI I/O Board Dealing with Sources with Limited Sink Support For sources with limited sink support, the following system design considerations and control suggestions are provided. System Design Considerations If at all possible, replace the source device with one with that supports more sinks. If a repeater is connected between the source and the HDMI board and the repeater is not necessary, remove the repeater and connect the source device directly to the Optima input.
HDMI I/O Board To create new virtual matrices, we recommend contacting technical support (see page 38). If you decide to create them yourself, see page 143 or the XNConnect Help file. VM 2 (red) VM 3 (blue) VM 1 (orange) FIG. 49 Example of VMs created for control of sources with limited sink support Example of Creating VMs (FIG. 49): The virtual matrices in this example assume no repeaters are used upstream or downstream of the Optima.
HDMI I/O Board To initialize (prime) system for InstaGate® technology with control panel or software: Note: The following process can take up to as much as a minute and a half for each one-to-all routing command to complete.* It is normal for the remaining monitors to lose content as each new output is added. 1. Check to be sure all source and destination devices attached to the HDMI board are powered up. 2. Route each input to all of the outputs.
HDMI I/O Board The HDMI Board’s Sink Key Cache If you need to persist the sink key cache on the HDMI board or clear persistence of the cache, follow the instructions provided. Command to Persist (Save) Sink Key Cache The HDMI I/O board uses the BCS command ~app! (warm boot) to save the sink key cache on all of its inputs. Note: The command also persists the routing state of the entire system. Important: All HDMI boards in the system receive the request.
S/PDIF & TosLlink® Digital Audio I/O Boards S/PDIF and TosLink® Digital Audio I/O Boards Applicability Notice Y C Y C Y C Y C Y C Y Y Y Y Y Y Y Y Y Y Y C C C C C C C C C C C FIG. 50 S/PDIF and TosLink digital audio I/O boards (shown with a Y/c board) This chapter pertains to Optima digital audio input/output boards with S/PDIF (coaxial) and TosLink (optical) connectors contained in pre-engineered systems and custom systems.
S/PDIF & TosLlink® Digital Audio I/O Boards TosLink Digital Audio I/O Boards Specifications Applies to I/O board FG1046-455 and to optical connectors on the combination board FG1046-461. These boards come in a number of pre-engineered systems or can be ordered individually for custom systems. Specifications Resolution 16 bit to 24 bit Sample Rate 32 kHz, 44.
Stereo Audio I/O Boards Stereo Audio I/O Boards Applicability Notice FIG. 52 A stereo audio board (shown with two video boards) This chapter pertains to Optima stereo audio input/output boards contained in pre-engineered systems and custom systems. The table below provides information on the types of stereo audio boards and their numbers. Stereo Audio I/O Boards with Digital Gain Control Note: Specifications for these boards are listed on page 92.
Stereo Audio I/O Boards Stereo Audio I/O Boards Specifications Applies to I/O boards FG1046-416, FG1046-425, FG1046-434, FG1046-473, FG1046-494, FG1046-500, FG1046-533, FG1046-539, and FG1046-548. These boards come in a number of pre-engineered systems or can be ordered individually for custom systems. Specifications Parameter Frequency Response THD + Noise Conditions 20 Hz to 20 kHz Value <±0.2 dB f = 20 Hz to 20 kHz, Vin = -10 to +10 dBu <0.03% f = 20 Hz to 20 kHz, Vin = 0 to +22 dBu <0.
Stereo Audio I/O Boards Attaching Wires When attaching stereo audio input and output wires, refer to the sheet labeled “AutoPatch Connector Guide” that ships with the system. The sheet shows where to attach the wires on the rear of each enclosure. Follow the sheet exactly; the system was programmed at the factory to operate only as indicated on the sheet. For multiple-enclosure systems, each enclosure will be numbered (e.g., “Chassis 1 of 3”) on a label located on the left side near the power receptacle.
Stereo Audio I/O Boards Adjusting Output Volume Volume (Digital Gain) Output volume can be adjusted using either a control panel with volume adjustment (see the control panel’s instruction manual) or BCS (Basic Control Structure) commands from an external controller. BCS Volume Adjustment Volume can be adjusted using one of three BCS command methods: Absolute, Relative, or Increment/ Decrement.
Stereo Audio I/O Boards To adjust digital input gain using the BCS Absolute Method: 1. Enter the command below. Replace the “#”s with the level and input number(s) and replace “^^^” with the decibel level. Enter the decibel level as a decimal number to the tenth place without the decimal point (e.g., -5 dB is entered as -50).
Stereo Audio I/O Boards 96 Optima Instruction Manual
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) RGBHV+Stereo to CatPro I/O Boards (with RX Modules) Applicability Notice 5 6 7 8 FIG. 55 An 8x8 RGBHV+Stereo to CatPro I/O board (shown below an RGBHV/HD-15 board and a stereo audio board) This chapter pertains to Optima RGBHV+Stereo to CatPro input/output boards contained in pre-engineered systems and custom systems. The table below shows the types of RGBHV+Stereo to CatPro boards and their numbers.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) RGBHV+Stereo to CatPro Boards I/O Boards Specifications RGBHV+Stereo to CatPro board specifications were measured in conjunction with CatPro RGBHV+Stereo RX Modules using Cat5e cable (for module specifications, see page 100). Applies to I/O boards: FG1046-575, FG1046-581. These boards come in a number of pre-engineered systems or can be ordered individually for custom systems.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) EDID Resolutions Supported through Local DDC* Standard and established timings are provided in the tables below. Standard Timings Standard Timing Identification Resolution Refresh Rate Max.** ID 1 1600x1200 (This is the preferred timing identified in the EDID.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) CatPro RGBHV+Stereo RX Module Specifications Applies to: CatPro RX Module FG1010-48-01. General Specifications Approvals CE, UL, cUL Signal Types RGBHV, stereo audio (audio is unbalanced) Maximum Resolution 1600x1200 (4:3) and 1920x1080p (16:9) @ 60 Hz up to 1000 ft. (305 m)* Supported Cable Types Cat5, Cat5e, Cat6, Cat6e, and STP (skew-free cable is not recommended) Power In Connector 2.1 mm DC power jack Power Consumption (max.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) Attaching Cables and Wires Important: Before attaching cables and wires – For important information on CatPro system equipment requirements, see page 104. For information on setting up a CatPro system before attaching cables and wires, see page 105. When attaching input and output cables and wires, refer to the sheet labeled “AutoPatch Connector Guide” that ships with the system. The sheet shows where to attach the cables and wires on each enclosure.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) To connect HD-15 inputs: 1. Fasten the cables onto the input HD-15 connectors (FIG. 58). FIG. 58 Fasten cable onto HD-15 connector HD-15 Board Connector Pinout Pinout information for the High Density HD-15 connector on the RGBHV+Stereo to CatPro I/O board is provided with FIG. 59. RGBHV+Stereo to CatPro I/O Board HD-15 Connector Pinout 5 4 Input (VESA DDC Compliant) 3 2 1 10 9 8 7 6 15 14 13 12 11 1. Red 6. Red GND 11. ID Bit 2. Green 7.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) Wiring Sources Source devices will require either balanced (differential) or unbalanced (single-ended) connections. Options for wiring between the sources and the input connectors are illustrated in FIG. 61 below. More than one of these options can be used in the same system. For balanced and unbalanced wiring details, see FIG. 60 on the previous page. FIG. 61 Options for source-to-Optima 5-Term wiring To attach outputs and power to the RX Module: 1.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) Note: For adjustment procedures when CatPro RGBHV+Stereo RX Modules are used in conjunction with Optima CatPro input/output boards, see page 106. RX HD-15 Video Out Pinout RX Module HD-15 Connector Pinout Output 5 4 3 2 1 10 9 8 7 6 15 14 13 12 11 1. Red 6. Red GND 11. ID Bit 2. Green 7. Green GND 12. ID Bit 3. Blue 8. Blue GND 13. Horizontal sync 4. ID Bit 9. +5 VDC out DDC 14. Vertical sync 5. GND-N/C 10. Ground 15. ID Bit FIG.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) Control PC and CatPro Wizard Control PC Requirements Windows 2000© or Windows XP Professional© 2 MB free disk space 15 MB RAM Serial port The Control PC, which runs the CatPro Wizard software*, connects via a null modem cable to the Control port on the Optima. The Control PC settings and the CatPro Wizard settings (which default to serial port COM 1 and baud rate 9600) must match.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) Video Display Adjustment The image on the Destination Monitor may be unclear or distorted due to the cable length. Adjustments are made on the CatPro RX Module to clear the image and compensate for the skew. Use the potentiometers to adjust the gain and peak, and use the Adjust knob to adjust the skew and volume. Gain and Peak pots Adjust knob for skew and volume LED for Adjust knob FIG.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) 3. If the Destination Monitor’s brightness needs to be increased or decreased, turn the Gain potentiometer until the desired brightness is reached. 4. If the picture is not sharp enough, turn the Peak potentiometer. (Increasing the peak removes the graininess.) The image will still be skewed. FIG.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) 5. Turn the Adjust knob clockwise or counterclockwise, if necessary, to align the green color bars with the red color bars. 6. Press the Adjust knob. The LED turns blue; the module is placed in Blue Skew Adjust mode. 7. Turn the Adjust knob clockwise or counterclockwise until the blue color bars align with the red and green color bars.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) CatPro Troubleshooting Note: If undesirable display conditions persist after trying the troubleshooting procedures below, contact technical support (see page 38). Problem: The image does not display or is dark and severely distorted. Solution: Try adjusting the gain and peak on the RX Module. Problem: The image on the destination monitor displays missing, extra, or flickering pixels.
RGBHV+Stereo to CatPro I/O Boards (with RX Modules) 110 Optima Instruction Manual
APWeb Expansion Board APWeb Expansion Board Applicability Notice APWeb expansion board FIG. 69 APWeb expansion board This chapter pertains to the Optima 3 RU APWeb expansion board, FG1046-313. Overview An APWeb board can be ordered pre-installed in an Optima 3 RU enclosure or as an upgrade for an existing 3 RU enclosure. (Not all Optima 3 RU enclosures support the APWeb expansion board; contact your AMX representative for details.
APWeb Expansion Board The APWeb Expansion Board The APWeb board has a TCP/IP Ethernet link connector, three indicator LEDs, and a Service switch. Ethernet Speed Indicator Ethernet Link Indicator Power Indicator TCP/IP Ethernet Link Connector Service Switch (set for normal function) FIG. 70 The APWeb board TCP/IP Ethernet Link Connector The APWeb board has a TCP/IP Ethernet (RJ-45) link connector that handles Ethernet 10/100 connections for 10 Mbps (megabits per second) and 100 Mbps.
APWeb Expansion Board System Setup The system setup example in FIG. 71 illustrates an Optima Distribution Matrix with an APWeb expansion board connected to a LAN. Both computers in the illustration have access to the Optima. If only one computer will be used, the APWeb board can be connected directly to the computer’s network card. FIG. 71 Optima enclosure with APWeb board connected to a LAN Important: AMX AutoPatch systems should only be linked in their own isolated networks.
APWeb Expansion Board Adding an APWeb Expansion Board If the APWeb board has been pre-installed, go directly to the instructions on page 115 for cabling and applying power to the enclosure. If the APWeb board was ordered to upgrade a system, complete the steps below and then follow the instructions on page 115 for cabling and applying power. ESD Warning: To avoid ESD (Electrostatic Discharge) damage to sensitive components, make sure you are properly grounded before touching any internal Optima materials.
APWeb Expansion Board Cabling and Applying Power After installing the APWeb board, connect it to a LAN or a Network Interface Card (NIC) on a PC. During the initial setup (see below), the APWeb board discovers the system. After the initial setup, it does not need to rediscover the system (even if power is cycled). If connecting to a PC, the PC’s settings may need to be changed (contact your Network Administrator). Communication Cable Requirements LAN Connection – Use an RJ-45 straight-through patch cable.
APWeb Expansion Board Testing the Connection The connection between the APWeb board and the LAN should be tested to complete the setup. The instructions below open the APWeb site to the user’s Home page, which has limited access to the APWeb server. If you need full access to configuration and security settings, see the APWeb Instruction Manual. To test the connection: 1. Launch a browser on your computer. 2. Type http://192.168.0.251 (default address) in the address bar and press Enter.
APWeb Expansion Board If APWeb opens but appears to be stalled (the message “Waiting to detect AutoPatch system on the network” displays for more than 30 seconds): Connect the PC directly to the serial port* on the Optima with a null modem cable. Open HyperTerminal (or other terminal emulation program). Power cycle the Optima; the splash screen appears with firmware version number. Verify that the firmware version is 1.2.0 or greater (see the graphic below). [1:Enclosure] AutoPatch Optima v1.4.
APWeb Expansion Board Enter the diagnostic command ~scrv3i3! Verify that one of the [type] lines displays the following configuration: BCS mode RS232 port, 57600 (8/1/N/E/NS) or BCS mode RS232 port, 57600 (8/1/N/NE/NS) ~scrv3i3! [3:Communication Interfaces] count = 3 [interface 1] detected [type] BCS mode RS232 port, 57600 (8/1/N/E/NS) [interface 2] detected [type] MCF5272 FEC Ethernet Controller [interface 3] detected [type] Neuron bridge v1.0.
XNNet Expansion Board XNNet Expansion Board Applicability Notice XNNet expansion board FIG. 74 XNNet expansion board This chapter pertains to the Optima 2 RU XNNet expansion board, SA1046-310. Overview An XNNet expansion board is required to attach an external XNNet device to an Optima 2 RU enclosure. An XNNet device is any device that sends and receives XNNet protocol over the Remote (XNNet) port. AMX AutoPatch XNNet control devices include remote control panels (e.g., the CP-15 and CP-20A).
XNNet Expansion Board Adding an XNNet Expansion Board If the XNNet board has been pre-installed, go directly to the instructions on page 121 for cabling the board and applying power to the system. If the XNNet board was ordered separately as an upgrade to an existing system, complete the steps below and then see the instructions on page 121 for cabling the board and applying power to the system. To add an XNNet board to an enclosure: 1.
XNNet Expansion Board Attaching XNNet Devices After the XNNet board is installed, it can be connected to an XNNet device that sends and receives XNNet protocol. Communication Cable Requirements A two-conductor, 20 AWG, 7/28 strand cable with a drain wire or shield, such as Alpha 2412C (customer supplied) Maximum length of cable: 1,000 ft. (305 m) To establish a Remote port connection with an XNNet device: 1.
XNNet Expansion Board 122 Optima Instruction Manual
Appendix A – Managing Configuration Files Appendix A – Managing Configuration Files Applicability Notice This appendix applies to XNConnect version 2.10.0. XNConnect’s version information is located under its Help menu. Version 2.10.0 supports full Device Discovery through AMX’s AutoPatch Duet module (firmware v1.4.0 or higher is required).
Appendix A – Managing Configuration Files Automatic Configuration An Optima system is automatically configured when the system generates its own configuration based on the installed hardware (applies to some Optima single-enclosure systems). The configuration is constructed internally with a standard set of 3 virtual matrices* by the CPU upon initial boot up of the system. When a system is automatically configured, the configuration information can be accessed for modification in only one way since an .
Appendix A – Managing Configuration Files To install XNConnect from the AMX AutoPatch CD: 1. Close all other applications currently running on your PC. 2. Insert the AMX AutoPatch CD into your CD drive to start automatically. If the CD does not autorun, explore the CD folder and double-click the Index.html file. 3. Select Software and find XNConnect. 4. Optional – Select the Release Notes to read about the software before installation. 5. Select Install. 6.
Appendix A – Managing Configuration Files Discovering a System The discovery process queries the attached system for configuration information and properties, including information regarding assigned signals and virtual matrix definitions. The discovery process may take several minutes to complete. We recommend disconnecting any third-party control devices from the enclosure’s serial ports before starting the discovery process. To discover a system: 1.
Appendix A – Managing Configuration Files Navigating the Interface XNConnect displays configuration information in two panes. The graphics are located in the left pane, and the properties of the currently selected graphic are in the right pane. At the top of the left pane are two tabs, Hardware and Virtual Matrices, for accessing the Hardware and Virtual Matrices views (see below).
Appendix A – Managing Configuration Files Multiple Signal Paths In Optima systems, each matrix is a signal path. When you select a connector in the Virtual Matrices view, the properties box in the right pane indicates the signal and the signal path for the connector. If the signal has multiple signal paths (e.g., component signals), each of the signals will be displayed and each signal path will display an appended number. In the example shown (FIG.
Appendix A – Managing Configuration Files Modifying an .xcl Configuration File Modifying an .xcl configuration file with XNConnect involves entering information in a field or in a series of dialog boxes. A brief look at the contents in the Help file provides a quick overview of the possible modifications. This section provides instructions for three common tasks: modifying channel names, setting the control panel password, and configuring local presets.
Appendix A – Managing Configuration Files Setting the Control Panel Password If the Optima has a CP-15 Control Panel, the panel can be locked and unlocked (see the CP-15 Control Panel Instruction Manual, available on the AMX AutoPatch CD or at www.amx.com). Locking the panel prohibits access to the system and can prevent accidental switching. The password can be set either with the control panel (see the CP-15 Control Panel Instruction Manual) or with XNConnect (see below).
Appendix A – Managing Configuration Files The instructions following are for creating a local preset. For detailed information on modifying and deleting local presets, see the XNConnect Help file. To create a new local preset: 1. In the Virtual Matrices view, right-click the virtual matrix the preset will be created for and select Manage Local Presets from the shortcut menu. The Manage Local Presets dialog box opens. 2. Click the Name New button. The Name New Preset dialog box opens. 3.
Appendix A – Managing Configuration Files 7. Click the Assign Switch button. The input appears in the Assignment column of the Destination Channels list; the switch will execute when the local preset is executed. 8. Disconnect inputs* or outputs as part of the local preset by selecting either the source or destination channel and clicking the Disconnect button.
Appendix A – Managing Configuration Files To load an .xcl configuration file to the enclosure’s CPU: Important: The matrix switcher must not be actively switching when loading any part of or all of the .xcl configuration file. 1. Recommended – Lock the control panel and/or disconnect any external controllers to ensure that no switches are executed during the loading of the file. If you have not already done so – From the File menu, select Save As and save an .xcl file with a new name to the PC.
Appendix A – Managing Configuration Files 134 Optima Instruction Manual
Appendix B – Programmer’s Interface for System Diagnostics Appendix B – Programmer’s Interface for System Diagnostics System Component Information The Optima displays system information in its splash screen* for diagnostic purposes. The information indicates the current status and well-being of the system components.
Appendix B – Programmer’s Interface for System Diagnostics Verbosity Settings The verbosity (v) settings (v0, v1, v2, v3) correspond to the level of detail that will be displayed, with v0 being the lowest level of detail and v3 being the highest level. Component Identity Settings Detailed information for a single system component can be specified by using its identity (i) number setting (i0 through i5) in the following table.
Appendix B – Programmer’s Interface for System Diagnostics Splash Screen Examples Following are four examples of splash screen information that could be displayed when different verbosity/component settings are specified. Depending on the amount of detail provided, you may need to scroll to see the entire display. Use the first example to check the host software (IOS) version and the hardware driver (appcode) version. ~scrv1i1! [1:Enclosure] AutoPatch Optima [host software] v3.2.3 [hardware driver] v1.4.
Appendix B – Programmer’s Interface for System Diagnostics ~scrv3i4! [4:Hardware Boards] detected [switching drivers] count = [mtx driver 1] generic 16 [mtx driver 2] generic 16 [mtx driver 3] generic 16 [io boards] count = 3 [board 1] 0000 [board 2] 4395 [board 3] 0000 [board 4] 4395 [board 5] 0000 [board 6] 4395 4 x 16 driver on board 2 x 16 driver on board 2 x 16 driver on board 2 [expansion boards] count = 0 FIG.
Appendix C – Advanced Configuration: Modifying Virtual Matrices Appendix C – Advanced Configuration: Modifying Virtual Matrices Applicability Notice: This appendix applies to XNConnect version 2.10.0. XNConnect’s version information is found under its Help menu. Version 2.10.0 supports full Device Discovery through AMX’s AutoPatch Duet module (firmware v1.4.0 or higher is required). Overview Your AMX AutoPatch Distribution Matrix is pre-engineered at the factory.
Appendix C – Advanced Configuration: Modifying Virtual Matrices Joining Virtual Matrices Existing virtual matrices can be joined, allowing the signals of the combined VMs to be switched simultaneously. The most common reason for joining VMs is to configure a system so that audio can follow video. VMs that contain the same signal cannot be joined, e.g., two matrices cannot be joined if they both contain S-Video signals.
Appendix C – Advanced Configuration: Modifying Virtual Matrices Creating Virtual Matrix Breakaways Breakaway virtual matrices can be created from an existing virtual matrix, allowing signals to be switched independently. The most common reason for creating virtual matrix breakaways is to configure a system so that video and audio signals can be switched separately. The information in the dialog boxes for this section is based on the following scenario.
Appendix C – Advanced Configuration: Modifying Virtual Matrices To create the second breakaway: 6. Optional – Under the Create New Breakaway section, change the number, name, and description. 7. From the Available Signals list, select the signal(s) to be included (to select multiple signals, hold down the Control key), and click Add Signal. The signals appear in the Current Signals list. 8. Click Create Breakaway. The VM appears in the Currently Defined Breakaways list. 9.
Appendix C – Advanced Configuration: Modifying Virtual Matrices Creating a New Virtual Matrix Important: Save a backup copy of the existing configuration file if you find it necessary to modify the file for any reason. A new virtual matrix can be created for new or existing hardware in a system. Rather than making changes to an existing virtual matrix, you can create a new one that uses the same board(s).
Appendix C – Advanced Configuration: Modifying Virtual Matrices The information in the dialog boxes for the following section is based on the following scenario. A dualconnector 20x20 standard video board in slots 3 and 4 is reconfigured to switch 10x10 Y/c by creating a new VM 2 that switches 10 channels of “Y” and 10 channels of “c” using the previous “composite” channels. Note: For additional information on creating virtual matrices, see the XNConnect Help file.
Appendix C – Advanced Configuration: Modifying Virtual Matrices 8. Repeat Steps 4 through 7 for additional signals. 9. Click OK to finalize the settings and close the dialog box. 10. From the Virtual Matrices view, right click the new virtual matrix and select Manage Connector Groupings. The Manage Virtual Matrix Groupings dialog box opens. 11. Under Select a Method, click Group by Pattern. (To group connectors individually, see the Help file.) 12.
Appendix C – Advanced Configuration: Modifying Virtual Matrices 18. If applicable – If Mirror Directions was not selected in Step 12, repeat Steps 11 through 17 for the outputs, selecting Destinations in Step 12. 19. Under Grouped Connectors, check the virtual channel assignment for each connector by selecting the Source and Destination Channels tabs. Channels tabs Check connector assignments Click Accept Assignments 20. Click Accept Assignments if satisfied. 21.
Appendix C – Advanced Configuration: Modifying Virtual Matrices Grouping Pattern Examples For switching purposes, connectors can be grouped in two basic patterns of virtual channels, spanning and sequential. Explanations and examples of each follow. Spanning Grouping Pattern A spanning pattern is the most common method of grouping connectors for an Optima Distribution Matrix.
Appendix C – Advanced Configuration: Modifying Virtual Matrices Sequential Grouping Pattern Although using a spanning pattern is more common for Optima Distribution Matrix enclosures, a sequential pattern can be used to group connectors. When this pattern is selected, each of the standard (component) signals in an aggregate signal is assigned to an adjacent connector on the same board. Example In the RGBS system in FIG.
Appendix D – Adding or Replacing I/O Boards Appendix D – Adding or Replacing I/O Boards This appendix covers the procedure to add or replace an Optima input/output (I/O) board. The procedure for replacing boards is the same for 2 RU and 3 RU enclosures. Input/output boards can be added to a partially filled enclosure to expand a system’s capabilities or increase an enclosure’s possible signal routings.
Appendix D – Adding or Replacing I/O Boards Removing I/O Boards To remove an Optima I/O board (or blank board plate): 1 1a: Remove the five screws indicated (four from the top and one from the side). 1b: Remove the rack ear indicated (four screws). Stand the enclosure on this side for Steps 2 and 3. Screw will be in one of these 2 holes Important: See Note below this step regarding this screw. 1a 1b 1a FIG.
Appendix D – Adding or Replacing I/O Boards 3 3a: Carefully pull the CPU/board unit straight out of the enclosure frame. 3b: Pull up on the CPU board, wiggling slightly to loosen it from the board unit. Tip the board unit to the left for Step 4. Avoid pins when pulling out and when pulling up 3b CPU Board unit 3a FIG. 92 Pull CPU/board unit straight out and remove CPU 4 4a: Remove the side screw. 4b: Remove the side slide-key. Stand the board unit on the slide-key end for Steps 5 and 6.
Appendix D – Adding or Replacing I/O Boards 5 Remove the two center slide-keys. Position with gold card edges at top Spacers Spacers not connected to boards fall free when slide-keys are removed Center slide-keys FIG. 94 Remove center slide-keys (2) 6 6a: Remove the screw(s) indicated. 6b: Remove the board(s) or the blank board plate(s). If removing a board, place the board in an ESD approved static shield bag and set aside. 6a Double-connector boards require removal of 2 screws 6b FIG.
Appendix D – Adding or Replacing I/O Boards Adding I/O Boards To add an I/O board: 1a: Insert the new board(s). 1 1b: Replace the screw(s) indicated. Tip the board unit to the left. Raised circle 1a 1b Small hole next to screw hole will fit over small raised circle on board FIG. 96 Insert new board(s) and replace screw(s) 2 2a: Replace the side slide-key. 2b: Replace the side screw. 2c.
Appendix D – Adding or Replacing I/O Boards 3 3a: Insert the left slide-key (tab up) through the spacers, adding spacers as needed. 3b: Insert the right slide-key (tab down) under the left key and through the spacers. One spacer is required between each board and/or board slot 3b 3a Tab down, insert under left slide-key Tab up Dual-connector boards require an extra spacer FIG.
Appendix D – Adding or Replacing I/O Boards 5 5a: Replace the three screws indicated on the bottom of the enclosure. 5b: Replace the expansion plate (requires two screws). 5b Expansion plate 5a Screw will fit into one of these 2 holes Step 6 Red Note FIG. 100 Replace 3 screws and expansion plate (2 screws) 6 6a: Replace the five screws indicated (four on the top and one on the side). 6b: Replace the rack ear (requires four screws).
Appendix D – Adding or Replacing I/O Boards Completing the procedure: Re-install the enclosure in the rack. Reconnect all cables (including link cables in a multiple-enclosure system) that were disconnected in the removal procedure. If the system’s configuration file does not need updating, reapply power to the enclosure and proceed with normal operations. Or If the system’s configuration file requires updating, continue with the section below.
Appendix D – Adding or Replacing I/O Boards 4. Enter ~def! Wait until a “V” appears (third line in FIG. 102 on previous page) to verify that the command is successful (this may take a few minutes). 5. Enter ~scrv3i5! to view the VM (virtual matrix) configuration (example in FIG. 103). If the VM configuration is sufficient (i.e., the system is not supposed to have any VMs other than the ones listed), enter ~app! to complete the configuration process (you do not need to finish Steps 6 through 12).
Appendix D – Adding or Replacing I/O Boards 158 Optima Instruction Manual
04/2010 ©2010 AMX. All rights reserved. AMX and the AMX logo are registered trademarks of AMX. AMX reserves the right to alter specifications without notice at any time. It’s Your World - Take Control™ 3000 RESEARCH DRIVE, RICHARDSON, TX 75082 USA • 800.222.0193 • 469.624.8000 • 469-624-7153 fax • 800.932.6993 technical support • www.amx.
