AMX AVS-OP-3604-110, AVS-OP-1624-110, AVS-OP-2416-110, AVS-OP-2004-110, AVS-OP-2020-110 Instruction Manual

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Instruction Manual

Optima

Distribution Matrix

Matrix Switchers

Release: 05/27/2008

AMX Limited Warranty and Disclaimer

All products returned to AMX require a Return Material Authorization (RMA) number. The RMA number is obtained from the AMX RMA Department. The RMA number must be clearly marked on the outside of each box. The RMA is valid for a 30-day period. After the 30-day period the RMA will be cancelled. Any shipments received not consistent with the RMA, or after the RMA is cancelled, will be refused. AMX is not responsible for products returned without a valid RMA number.

Warranty Repair Policy

• AMX will repair any defect due to material or workmanship issues during the applicable warranty period at no cost to the AMX Authorized Partner, provided that the AMX Authorized Partner is responsible for in-bound freight and AMX is responsible for outbound ground freight expenses.

• The AMX Authorized Partner must contact AMX Technical Support to validate the failure before pursuing this service.

• AMX will complete the repair and ship the product within five (5) business days after receipt of the product by AMX. The AMX Authorized Partner will be notified if repair cannot be completed within five (5) business days.

• Products repaired will carry a ninety (90) day warranty or the balance of the remaining warranty, whichever is greater.

• Products that are returned and exhibit signs of damage or unauthorized use will be processed under the Non-Warranty Repair Policy.

• AMX will continue to provide Warranty Repair Services for products discontinued or replaced by a Product Discontinuance Notice.

Non-Warranty Repair Policy

• Products that do not qualify to be repaired under the Warranty Repair Policy due to age of the product or Condition of the product may be repaired utilizing this service.

• The AMX Authorized Partner must contact AMX Technical Support to validate the failure before pursuing this service.

• Non-warranty repair is a billable service.

• Products repaired under this policy will carry a ninety (90) day warranty on material and labor.

• AMX will notify the AMX Authorized Partner with the cost of repair, if cost is greater than the Standard Repair Fee, within five (5) days of receipt.

• The AMX Authorized Partner must provide a Purchase Order or credit card number within five (5) days of notification, or the product will be returned to the AMX Authorized Partner.

• The AMX Authorized Partner will be responsible for in-bound and out-bound freight expenses.

• Products will be repaired within ten (10) business days after AMX Authorized Partner approval is obtained.

• Non-repairable products will be returned to the AMX Authorized Partner with an explanation.

• See AMX Non-Warranty Repair Price List for minimum and Standard Repair Fees and policies.

Software License and Warranty Agreement

• LICENSE GRANT. AMX grants to Licensee the non-exclusive right to use the AMX Software in the manner described in this License. The AMX Software is licensed, not sold. This license does not grant Licensee the right to create derivative works of the AMX Software. The AMX Software consists of generally available programming and development software, product documentation, sample applications, tools and utilities, and miscellaneous technical information. Please refer to the README.TXT file on the compact disc or download for further information regarding the components of the AMX Software. The AMX Software is subject to restrictions on distribution described in this License Agreement. AMX Dealer, Distributor, VIP or other AMX authorized entity shall not, and shall not permit any other person to, disclose, display, loan, publish, transfer (whether by sale, assignment, exchange, gift, operation of law or otherwise), license, sublicense, copy, or otherwise disseminate the AMX Software. Licensee may not reverse engineer, decompile, or disassemble the AMX Software.

• ACKNOWLEDGEMENT. You hereby acknowledge that you are an authorized AMX dealer, distributor, VIP or other AMX authorized entity in good standing and have the right to enter into and be bound by the terms of this Agreement.

• INTELLECTUAL PROPERTY. The AMX Software is owned by AMX and is protected by United States copyright laws, patent laws, international treaty provisions, and/or state of Texas trade secret laws. Licensee may make copies of the AMX Software solely for backup or archival purposes. Licensee may not copy the written materials accompanying the AMX Software.

• TERMINATION. AMX RESERVES THE RIGHT, IN ITS SOLE DISCRETION, TO TERMINATE THIS LICENSE FOR ANY REASON UPON WRITTEN NOTICE TO LICENSEE. In the event that AMX terminates this License, the Licensee shall return or destroy all originals and copies of the AMX Software to AMX and certify in writing that all originals and copies have been returned or destroyed.

• PRE-RELEASE CODE. Portions of the AMX Software may, from time to time, as identified in the AMX Software, include PRERELEASE CODE and such code may not be at the level of performance, compatibility and functionality of the GA code. The PRE-RELEASE CODE may not operate correctly and may be substantially modified prior to final release or certain features may not be generally released. AMX is not obligated to make or support any PRE-RELEASE CODE. ALL PRE-RELEASE CODE IS PROVIDED "AS IS" WITH NO WARRANTIES.

• LIMITED WARRANTY. AMX warrants that the AMX Software (other than pre-release code) will perform substantially in accordance with the accompanying written materials for a period of ninety (90) days from the date of receipt. AMX DISCLAIMS ALL OTHER WARRANTIES, EITHER EXPRESS OR IMPLIED, INCLUDING, BUT NOT LIMITED TO IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE, WITH REGARD TO THE AMX SOFTWARE. THIS LIMITED WARRANTY GIVES LICENSEE SPECIFIC LEGAL RIGHTS. Any supplements or updates to the AMX SOFTWARE, including without limitation, any (if any) service packs or hot fixes provided to Licensee after the expiration of the ninety (90) day Limited Warranty period are not covered by any warranty or condition, express, implied or statutory.

• LICENSEE REMEDIES. AMX's entire liability and Licensee's exclusive remedy shall be repair or replacement of the AMX Software that does not meet AMX's Limited Warranty and which is returned to AMX in accordance with AMX's current return policy. This Limited Warranty is void if failure of the AMX Software has resulted from accident, abuse, or misapplication. Any replacement AMX Software will be warranted for the remainder of the original warranty period or thirty (30) days, whichever is longer. Outside the United States, these remedies may not available. NO LIABILITY FOR CONSEQUENTIAL DAMAGES. IN NO EVENT SHALL AMX BE LIABLE FOR ANY DAMAGES WHATSOEVER (INCLUDING, WITHOUT LIMITATION, DAMAGES FOR LOSS OF BUSINESS PROFITS, BUSINESS INTERRUPTION, LOSS OF BUSINESS INFORMATION, OR ANY OTHER PECUNIARY LOSS) ARISING OUT OF THE USE OF OR INABILITY TO USE THIS AMX SOFTWARE, EVEN IF AMX HAS BEEN ADVISED OF THE POSSIBILITY OF SUCH DAMAGES. BECAUSE SOME STATES/COUNTRIES DO NOT ALLOW THE EXCLUSION OR LIMITATION OF LIABILITY FOR CONSEQUENTIAL OR INCIDENTAL DAMAGES, THE ABOVE LIMITATION MAY NOT APPLY TO LICENSEE.

• U.S. GOVERNMENT RESTRICTED RIGHTS. The AMX Software is provided with RESTRICTED RIGHTS. Use, duplication, or disclosure by the Government is subject to restrictions as set forth in subparagraph ©(1)(ii) of The Rights in Technical Data and Computer Software clause at DFARS 252.227-7013 or subparagraphs ©(1) and (2) of the Commercial Computer Software Restricted Rights at 48 CFR 52.227-19, as applicable.

• SOFTWARE AND OTHER MATERIALS FROM AMX.COM MAY BE SUBJECT TO EXPORT CONTROL. The United States Export Control laws prohibit the export of certain technical data and software to certain territories. No software from this Site may be downloaded or exported (i) into (or to a national or resident of) Cuba, Iraq, Libya, North Korea, Iran, Syria, or any other country to which the United States has embargoed goods; or (ii) anyone on the United States Treasury Department's list of Specially Designated Nationals or the U.S. Commerce Department's Table of Deny Orders. AMX does not authorize the downloading or exporting of any software or technical data from this site to any jurisdiction prohibited by the United States Export Laws.

This Agreement replaces and supersedes all previous AMX Software License Agreements and is governed by the laws of the State of Texas, and all disputes will be resolved in the courts in Collin County, Texas, USA. For any questions concerning this Agreement, or to contact AMX for any reason, please write: AMX License and Warranty Department, 3000 Research Drive, Richardson, TX 75082.

Contents

Optima Instruction Manual

Contents

ESD Warning .......................................................................................................1

Important Safety Information & Instructions .......................................................2

Information et directives de sécurité importantes...............................................3

Notices ................................................................................................................4

Overview & General Specifications .....................................................................7

Applicability Notice ................................................................................................................. 7

Product Notes ......................................................................................................................... 9

Front View............................................................................................................................. 10

Rear View .............................................................................................................................. 11

Optima Specifications............................................................................................................ 14

Configuration & Control ........................................................................................................ 15

Installation & Setup ...........................................................................................17

Site Recommendations .......................................................................................................... 17

General Hazard Precautions .................................................................................................. 17

Unpacking.............................................................................................................................. 18

Rack Installation & System Setup .......................................................................................... 19

Linking Enclosures ................................................................................................................. 21

Attaching External Controllers .............................................................................................. 28

Attaching Inputs & Outputs................................................................................................... 32

Applying Power & Startup..................................................................................................... 34

Serial Control Device Startup ................................................................................................ 36

Executing a Test Switch.........................................................................................................37

Technical Support.................................................................................................................. 39

Appendix A – Managing Configuration Files .....................................................41

Installing XNConnect ............................................................................................................. 42

Opening a Configuration File ................................................................................................ 43

Discovering a System ............................................................................................................44

Navigating the Interface........................................................................................................45

Modifying a Configuration File .............................................................................................. 46

Loading a Configuration File ................................................................................................. 50

Appendix B – Advanced Configuration: Modifying Virtual Matrices .................51

Overview ............................................................................................................................... 51

Joining Virtual Matrices......................................................................................................... 52

Creating Virtual Matrix Breakaways ...................................................................................... 53

Creating a New Virtual Matrix............................................................................................... 55

Grouping Pattern Examples .................................................................................................. 59

Contents

Optima Instruction Manual

Appendix C – Paralleling Inputs........................................................................ 61

Cabling Parallel Inputs ...........................................................................................................61

Controlling Paralleled Inputs .................................................................................................62

Appendix D – Adding or Replacing I/O Boards ................................................ 63

Removing I/O Boards.............................................................................................................64

Adding I/O Boards.................................................................................................................67

Updating the System Configuration ......................................................................................70

Appendix E – Replacing an Optima Power Supply ........................................... 73

3 RU Enclosures – Removal & Installation ..............................................................................73

2 RU Enclosures – Removal & Installation ..............................................................................81

Troubleshooting .................................................................................................................... 88

Standard Video & Hi-Z Sync Input/Output Boards ........................................... 89

Standard Video Input/Output Boards Specifications ............................................................. 90

Hi-Z & HV Hi-Z Sync Input/Output Boards Specifications ...................................................... 91

Attaching Cables ...................................................................................................................91

S-Video Input/Output Boards ........................................................................... 93

S-Video Input/Output Boards Specifications .........................................................................93

Attaching Cables ...................................................................................................................94

Y/c Input/Output Board.................................................................................... 95

Y/c Input/Output Boards Specifications.................................................................................95

Attaching Cables ...................................................................................................................96

Wideband Video (300 MHz) Input/Output Boards ........................................... 97

Wideband Video (300 MHz) Input/Output

Boards Specifications.................................................................................................................. 98

Attaching Cables ...................................................................................................................99

500 MHz Video Input/Output Boards............................................................. 101

500 MHz Video Input/Output Boards Specifications ........................................................... 102

Attaching Cables ................................................................................................................. 102

RGBHV/HD-15 Input/Output Boards .............................................................. 103

RGBHV/HD-15 Input/Output Boards Specifications ............................................................104

Attaching Cables ................................................................................................................. 105

SD-SDI & HD-SDI Digital Video Input/Output Boards .................................... 107

SD-SDI Input/Output Boards Specifications......................................................................... 108

HD-SDI Input/Output Boards Specifications ........................................................................ 108

Attaching Cables ................................................................................................................. 109

Contents

iii

Optima Instruction Manual

DVI (Digital Visual Interface) Input/Output Boards..........................................111

4x4 DVI Input/Output Board Specifications ........................................................................ 112

8x8 DVI Input/Output Board Specifications ........................................................................ 114

Attaching Cables ................................................................................................................. 116

Special Information for the 8x8 DVI Board.......................................................................... 117

The EDID Programmer (for use with 8x8 DVI board only) ................................................... 119

S/PDIF & TosLink® Digital Audio Input/Output Boards ...................................125

S/PDIF Digital Audio Input/Output Boards Specifications ................................................... 125

TosLink Digital Audio Input/Output Boards Specifications.................................................. 126

Attaching Cables ................................................................................................................. 126

Stereo Audio Input/Output Boards .................................................................127

Stereo Audio Input/Output Boards Specifications............................................................... 128

Attaching Wires ................................................................................................................... 128

Adjusting Output Volume.................................................................................................... 130

Adjusting Digital Input Gain ................................................................................................ 130

RGBHV+Stereo to CatPro Input/Output Boards .............................................133

RGBHV+Stereo to CatPro Boards Input/Output Boards Specifications ............................... 134

Attaching Cables & Wires.................................................................................................... 135

System Setup & Requirements ............................................................................................ 137

Video Display Adjustment ................................................................................................... 138

CatPro RGBHV+Stereo RX Module ..................................................................................... 141

CatPro RGBHV+Stereo RX Module Specifications............................................................... 142

Attaching Cables & Wires (RX Module) ............................................................................... 143

APWeb Expansion Board.................................................................................145

Overview ............................................................................................................................. 145

The APWeb Board ............................................................................................................... 146

System Setup....................................................................................................................... 147

Adding an APWeb Board .................................................................................................... 148

Cabling & Applying Power .................................................................................................. 149

Testing the Connection ....................................................................................................... 150

XNNet Expansion Board..................................................................................153

Adding an XNNet Board ..................................................................................................... 154

Connecting an XNNet Device .............................................................................................. 155

Contents

Optima Instruction Manual

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.

Anyone performing field maintenance on AMX AutoPatch equipment should use an appropriate ESD field service kit complete with at least a dissipative work mat with a ground cord and a UL listed adjustable wrist strap with another ground cord. These items should not be manufactured locally, since they are generally composed of highly resistive conductive materials to safely drain static charges, without increasing an electrocution risk in the event of an accident. ESD protective equipment can be obtained from 3M™, Desco

ESD Warning

, Richmond Technology®, Plastic Systems®, and other such vendors.

Important Safety Information & Instructions

Optima Instruction Manual

Important Safety Information & 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.

 There are no user serviceable parts inside an AMX AutoPatch product; service should only be

done by qualified personnel.

 If you see smoke or smell a strange odor coming from your AMX AutoPatch product, turn it

off immediately and call technical support.

 For products with multiple power supplies in each unit, make sure all power supplies are

turned on simultaneously.

 Use surge protectors and/or AC line conditioners when powering AMX AutoPatch products.

 Only use a fuse(s) with the correct fuse rating in your enclosure.

 Make sure the power outlet is close to the product and easily accessible.

 Make sure the product is on or attached to a stable surface.

 Turn off equipment before linking pieces together, unless otherwise specified in that product’s

documentation.

 For safety and signal integrity, use a grounded external power source and a grounded power

connector.

 Turn off and unplug an enclosure before adding or removing boards, unless otherwise

specified in that product’s documentation.

 To avoid shock or potential ESD (Electrostatic Discharge) damage to equipment, make sure

you are properly grounded before touching components inside an AMX AutoPatch product.

Information et directives de sécurité importantes

Optima Instruction Manual

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.

 Lisez attentivement toutes les directives avant d’installer et d’utiliser les appareils AMX

AutoPatch.

 Le voltage doit être approprié à l’appareil AMX AutoPatch.

 Les appareils AMX AutoPatch ne contiennent aucune pièce réparable par l’usager; la

réparation ne doit être effectuée que par du personnel qualifié.

 Si de la fumée ou une odeur étrange se dégagent d’un appareil AMX AutoPatch, fermez-le

immédiatement et appelez le Service de soutien technique.

 Veillez à ce que tous les blocs d’alimentation des appareils dotés de blocs d’alimentation

multiples dans chaque unité soient allumés simultanément.

 Servez-vous de protecteurs de surtension ou de conditionneurs de lignes à courant alternatif

lorsque vous mettez les appareils AMX AutoPatch sous tension.

 Placez uniquement des fusibles de calibre exact dans les boîtiers.

 Veillez à ce que la prise de courant soit proche de l’appareil et facile d’accès.

 Veillez à ce que votre appareil AMX AutoPatch soit installé sur une surface stable ou qu’il

y soit fermement maintenu.

 Fermez toutes les composantes de l’équipement avant de relier des pièces, à moins

d’indication contraire fournie dans la documentation de l’appareil.

 Par mesure de sécurité et pour la qualité des signaux, servez-vous d’une source d’alimentation

externe mise à la terre et d’un connect d’alimentation mis à la terre.

 Fermez et débranchez le boîtier avant d’ajouter ou d’enlever des plaquettes, à moins

d’indication contraire fournie dans la documentation du appareil.

 Pour éviter les chocs ou les dommages éventuels causés à l’équipement par une décharge

électrostatique, veillez à ce le dispositif oit bien relié à la terre avant de toucher les composantes se trouvant à l’intérieur d’un appareil AMX AutoPatch.

Notices

Optima Instruction Manual

Notices

AMX© 2008 (Rev C), 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. Copyright protection claimed extends to AMX hardware and software and includes all forms and matters copyrightable material and information now allowed by statutory or judicial law or herein after granted, including without limitation, material generated from the software programs which are displayed on the screen such as icons, screen display looks, etc. Reproduction or disassembly of embodied computer programs or algorithms is expressly prohibited.

Liability Notice

No patent liability is assumed with respect to the use of information contained herein.

While every precaution has been taken in the preparation of this publication, AMX assumes no responsibility for error or omissions. No liability is assumed for damages resulting from the use of the information contained herein.

Further, this publication and features described herein are subject to change without notice.

USFCC Notice

The United States Federal Communications Commission (in 47CFR 15.838) has specified that the following notice be brought to the attention of the users of this product.

Federal Communication Commission Radio Frequency Interference Statement:

“This equipment has been tested and found to comply with the limits for a Class A digital device, pursuant to Part 15 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 his own expense.

If necessary, the user should consult the dealer or an experienced radio/television technician for additional suggestions. The user may find the booklet, How to Identify and Resolve Radio-TV

Interference Problems, prepared by the Federal Communications Commission to be helpful.”

This booklet is available from the U.S. Government Printing Office, Washington, D.C. 20402, Stock N. 004-000-00345-4.

Use shielded cables. To comply with FCC Class A requirement, all external data interface cables and adapters must be shielded.

Lithium Batteries Notice

Switzerland requires the following notice for products equipped with lithium batteries. This notice is not applicable for all AMX equipment.

Upon shipment of the products to Switzerland, the requirements of the most up-to-date Swiss Ordinance Annex 4.10 of SR 814.013 will be met by providing the necessary documents and annual reports relative to the disposal of the batteries to the Swiss Authorities.

Notices

Optima Instruction Manual

Trademark Notices

AMX®, AutoPatch®, Ultra-Flat Response Certified™, and NetLinx® are trademarks of AMX.

Windows

, Windows 98®, Windows 2000®, Windows NT®, and Windows XP Professional® are

registered trademarks of Microsoft Corporation.

HyperTerminal

, Desco®, Richmond Technology®, and Plastic Systems® are registered trademarks.

Neuron

TosLink

Ethernet

is a copyright product of Hilgraeve Inc.

and LonTalk® are registered trademarks of Echelon.

is a registered trademark of the Toshiba Corporation.

is a registered trademark of the Xerox Corporation.

Other products mentioned herein may be the trademarks of their respective owners.

Warnings & Cautions

This manual uses the following conventions and icons to draw attention to actions or conditions that could potentially cause problems with equipment or lead to personal risk.

ESD Warning: The icon to the left indicates text regarding potential danger associated with the discharge of static electricity from an outside source (such as human hands) into an integrated circuit, often resulting in damage to the circuit.

Warning: The icon to the left indicates text that cautions readers against actions or conditions that could cause potential injury to themselves.

Caution: The icon to the left indicates text that cautions readers against actions that could cause potential injury to the product or the possibility of serious inconvenience.

Notices

Optima Instruction Manual

Overview & General Specifications

Optima Instruction Manual

Overview & General Specifications

Applicability Notice

The information in this manual applies to the following Optima pre-configured systems, custom systems, input/output boards, and expansion boards:

Optima Pre-Configured Systems

All Optima pre-configured systems are numbered FGP46-xxxx-xxx (e.g., FGP46-0808-007).

Optima Custom Systems

All custom Optima systems contain one or more of the following enclosure models:

Enclosure Size & Sales #

3 RU FG1046-10

2 RU FG1046-13

Optima Input/Output Boards

Input/Output Boards

A single enclosure can handle a combination of signals (such as analog audio, analog video, sync, digital video, DVI, etc.) depending on the number and type of input/output (I/O) boards. Optima 2 RU enclosures have four board slots while Optima 3 RU enclosures have six board slots. (A double board fills two board slots and has two rows of connectors; see page 13.)

For information on the specific I/O boards in your system, including connector types, cabling/wiring directions, and specifications, see the applicable board chapter in this manual (chapter title specifies the board’s signal type).

The following tables provide configuration sizes and sales numbers for boards that are sold individually for custom systems. Pre-configured systems will also contain boards from these tables. 500 MHz Video I/O boards are not listed in the tables, since they are not sold individually. 500 MHz Video I/O boards are available only in pre-configured (Slam Dunk) systems in several configuration sizes with or without stereo audio (see page 101).

Signal Configuration Sales #

Standard Video (BNC Connectors)

S-Video (S-Video Connectors)

Y/c (BNC Connectors)

Optima Video I/O Boards & Sales #

8x8 FG1046-440

16x16 FG1046-485

16x24 FG1046-545

20x4 FG1046-470

20x20 FG1046-413

24x4 FG1046-515

24x16 FG1046-431

36x4 FG1046-422

8x8 FG1046-446

16x16 FG1046-488

8x8 FG1046-476

Overview & General Specifications

Optima Instruction Manual

Signal Configuration Sales #

Wideband Video (300 MHz) (BNC Connectors)

Wideband Video (300 MHz) (HD-15 Connectors)

HV Sync (BNC Connectors)

SD-SDI (BNC Connectors)

HD-SDI (BNC Connectors)

DVI* (DVI-I Connectors)

* These boards are not HDCP compliant at this time.

Optima Video I/O Boards & Sales # (Continued)

8x8 FG1046-437

16x16 FG1046-482

16x24 FG1046-542

20x4 FG1046-467

20x20 FG1046-410

24x4 FG1046-503

24x16 FG1046-428

36x4 FG1046-419

4x2 FG1046-530

8x4 FG1046-497

8x8 FG1046-536

15x15 FG1046-593

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-Z) FG1046-554

36x4 (Hi-Z) FG1046-551

4x4 FG1046-527

8x8 FG1046-491

8x8 FG1046-590

4x4 FG1046-479

8x8 FG1046-659

Optima Audio I/O Boards & Sales #

Signal Configuration Sales #

Stereo Audio (Pluggable 5-Position Terminal Block Connectors)

8x4 FG1046-539

8x8 FG1046-494

16x16 FG1046-533

16x24 FG1046-548

20x4 FG1046-473

20x20 FG1046-416

24x4 FG1046-500

24x16 FG1046-434

36x4

FG1046-425

Overview & General Specifications

Optima Instruction Manual

Optima Digital Audio I/O Boards & Sales #

Signal Configuration Sales #

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* & Sales #

Signal Configuration Sales #

RGBHV+Stereo (RJ-45 Connectors)

* These boards are used in conjunction with CatPro RX (Receiver) FG1010-48.

4x8 FG1046-581

8x8 FG1046-575

Optima Expansion Boards

If you ordered Optima expansion boards (which add additional functionality to the system), they were installed at the factory. For information on expansion boards, including connectors and cabling/wiring directions, see the specific expansion board’s appendix in this manual.

Optima Expansion Boards & Sales #

Board Type Sales #

APWeb (TCP/IP)

– 2 RU only SA1046-310

XNNet

– 3 RU only FG1046-313

Product Notes

An Optima Distribution Matrix can stand alone or be linked as part of a larger system, including any other AMX AutoPatch products that are XNNet compatible. The Optima is available in a variety of input to output configuration sizes and can contain audio, video, and data boards in the same enclosure.

An Optima enclosure fits in a broad range of digital and analog environments and is controllable from a variety of sources (see page 15).

Note: Because the Optima Distribution Matrix is available in several models and various configurations, the illustrations in this manual may differ from the model(s) you purchased.

Optima Features

 Limited Warranty (see warranty at www.amx.com or on the AMX AutoPatch CD)

 Ultra-Flat Response Certified (except for systems containing 500 MHz Video boards)

 24-hour technical support

 High bandwidth-linearity and low crosstalk

 Supports paralleled multi-channel signal routing

 System self-diagnostics

 Groupings

 Ability to mix a variety of audio, video, and data boards in a single enclosure

 Virtual matrices (levels) / groupings

 Breakaway to route audio, video, or audio-follow-video

 Link to other AMX AutoPatch matrix switchers

 Global and local presets

 RS-232 and Ethernet ports

 Board upgrade potential

Overview & General Specifications

Optima Instruction Manual

Optima Features (continued)

 Optional expansion boards with TCP/IP or XNNet ports

 Links for status display devices

 Volume control (standard audio)

 Audio connections support balanced or unbalanced audio

 Rack mounting ears included

Control Features

Optima systems support three different protocols: BCS* (Basic Control Structure), XNNet, and TCP/IP. Several different control options are available for Optima systems. Multiple control methods can be used on the same system.

 Front control panel options or blank front panel

 Remote control panel options

 NetLinx

AMX representative)

 APControl 3.0 software (free with all systems)

 APWeb (TCP/IP control via an expansion board or an external module)

 Supports AMX AutoPatch’s simple BCS serial control protocol

 Supports third-party controllers

compatible controller (for specific control programming information, contact your

* BCS is sent as ASCII characters through the RS-232 port. For information on BCS commands, see the BCS Protocol Instruction Manual on the AMX AutoPatch CD or at www.amx.com.

Note: Features and specifications described in this document are subject to change without notice.

Front View

The enclosure, which is the structural basis of the Optima Distribution Matrix, is available in many convenient pre-configured sizes or can be custom built for your installation. An enclosure may have either a blank front panel or one of various control panels (front or remote panels produced by AMX AutoPatch for controlling the system’s switches and system attributes). Although control panels are optional, we recommend one per system for system verification, redundant control, and troubleshooting. Control panel illustrations and directions for use are provided in the specific Control Panel Instruction Manual (available on the AMX AutoPatch CD or at www.amx.com). For more control options, see page 15.

Overview & General Specifications

Optima Instruction Manual

Input connectors

Output connectors

Input connectors

Output connectors

I/O boards

Expansion slots

CPU/Control board

Serial number

Power receptacle

Expansion slots

CPU/Control board

Serial number

Power receptacle

Rear View

The enclosure’s appearance, as viewed from the rear (FIG. 1), will vary depending on the configuration and signal types.

FIG. 1 Rear views of Optima 3 RU and 2 RU enclosures

Rear View Components

 Two expansion/control slots (may contain boards for communication interfaces, etc.)

 Serial number

 Power receptacle and specifications

 CPU/Control board

 Input/output boards (number will vary depending on enclosure size, and slots may be empty

depending on the configuration)

The following sections briefly introduce the hardware on the rear of the enclosure.

Overview & General Specifications

Optima Instruction Manual

Expansion slots

System Status indicator

Communication Status indicator

XNNet comm link port

Serial port

Ethernet port

Serial port

Ethernet port

Power receptacle

(for linking enclosures)

CPU/Control Board

FIG. 2 CPU/Control boards in Optima 3 RU & 2 RU enclosures

The CPU is to the left of the input connectors on the rear of the enclosure (FIG. 2).

At the top of the CPU you will find two indicators:

 System Status Indicator – for system status

 Communication Status Indicator – for communication activity

Each CPU has the following port options:

 Serial port – for attaching an external control device

 Ethernet port – for linking enclosures

 XNNet communication link port – on all Optima 3 RU enclosures* for linking to AMX

AutoPatch control devices (such as remote control panels and SBCs) and display units

* Optima 2 RU enclosures only have the XNNet Communication Link port available as an expansion board.

Power Receptacle

The universal power receptacle is in the lower left hand corner on the rear of the enclosure (FIG. 2). 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 39).

Expansion/Control Slots

Each enclosure has two expansion/control slots (FIG. 2) for expansion boards to increase functionality and add new features to your system, such as an XNNet board for an Optima 2 RU enclosure or an APWeb board for control over a LAN. If expansion boards are part of the original system, the boards are installed at the factory. For information on expansion boards, including connectors and cabling/wiring directions, see the specific expansion board’s appendix in this manual.

Overview & General Specifications

Optima Instruction Manual

Board slot 1

Board slot 2

Board slots 3 and 4

Board slots 5 and 6

Input/Output Boards

FIG. 3 Input/Output boards in an Optima 3 RU enclosure

A single enclosure can handle a combination of signals (such as analog audio, analog video, sync, digital video, DVI, etc.) depending on the number and type of input/output boards. Optima 2 RU enclosures have four board slots while Optima 3 RU enclosures have six board slots. A double board fills two board slots and has two rows of connectors.

For information on the boards included in your system, including connector types, cabling/wiring directions, and specifications, see the specific board chapter in this manual (chapter title specifies the board’s signal type).

Input & Output Connectors

Input and output connectors are the attachment points for source and destination devices that connect to the system. Viewed from the rear of the enclosure, the inputs (sources) are on the left side of each board, and the outputs (destinations) are on the right side of the board. BNC connectors are color coded; the white connectors are inputs and the black connectors are outputs. In addition, colored bands that correspond to signal type (see page 33) are placed on the first BNC input and output connectors.

Input and output connectors are numbered separately on each board and read left to right. The numbers are either directly above or below the connector (or connector pair, e.g., H and V connectors). This numbering pattern continues on each board (FIG. 3).

For control purposes, signals can only be routed from inputs on one board to outputs on the same board because each board in an Optima has its own switching matrix.

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. 1 on page 11). 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). A single enclosure will be labeled “Chassis 1 of 1”; in a multi-enclosure system the enclosures will be labeled “Chassis 1 of 3”, etc.

Before installation, we recommend recording the serial number for each enclosure in the system in an easily accessible location.

Overview & General Specifications

Optima Instruction Manual

Optima Specifications

General Specifications

Parameter Value

Approvals CE, UL, cUL

Humidity 0 to 90% non-condensing

Operational Temperature 32° to 110° F (0° to 43° C)

MTBF 92,000 hrs.

2 RU Enclosures

AC Power* 100 to 240 VAC, single phase (50 to 60 Hz)

Power Consumption (max.) 160 Watts per enclosure

Power Consumption (typical) 100 Watts per fully loaded enclosure

Thermal Dissipation (max.) 546 BTU

Thermal Dissipation (typical) 341 BTU per fully loaded enclosure

Dimensions Depth Width with mounting ears Width without mounting ears Height

Weight Approximately 10 lb. (4.54 kg) per loaded enclosure

3 RU Enclosures

AC Power* 100 to 240 VAC, single phase (50 to 60 Hz)

Power Consumption (max.) 260 Watts per enclosure

Power Consumption (typical) 135 Watts per fully loaded enclosure

Thermal Dissipation (max.) 887 BTU

Thermal Dissipation (typical) 461 BTU per fully loaded enclosure

Dimensions Depth Width with mounting ears Width without mounting ears Height

Weight Approximately 12 lb. (5.44 kg) per loaded enclosure

* The fuse is internal and is not field serviceable. If you believe the fuse needs to be replaced, contact technical support (see page 39).

1.8 A @ 100 to 240 VAC max.

Approximately 12 in. (30.5 cm)

18.9 in. (48.0 cm)

17.4 in. (44.2 cm)

3.5 in. (8.9 cm)

3.3 A @ 115 VAC max.

1.6 A @ 230 VAC max.

Approximately 12 in. (30.5 cm)

18.9 in. (48.0 cm)

17.4 in. (44.2 cm)

5.2 in. (13.2 cm)

For individual board information and specifications, see the specific board chapter in this manual.

Note: Features and specifications described in this document are subject to change without notice.

Overview & General Specifications

Optima Instruction Manual

Configuration & Control

The configuration file is stored in the CPU and contains routing and control information for an AMX AutoPatch Routing System. Each system is programmed (configured) at the factory according to customer specifications.

Configuration Information

A copy of the custom configuration file is provided on the AMX AutoPatch CD that is shipped with each system. The configuration software, XNConnect, is provided on the CD and can be used to further customize the configuration file (see “Appendix A – Managing Configuration Files” on page 41).

Unless you need to modify your system, you will not need to use any of the configuration software that is included on the CD. Always make a copy of the configuration file before modifying it.

Configuration file modifications include basic tasks, such as creating local presets, customizing input and output channel names for control display (e.g., in APWeb’s control interface), as well as advanced tasks, such as adding or managing hardware. Configuration file modifications are made with XNConnect, which graphically displays the AMX AutoPatch system and its control configuration. Other configuration software for specific hardware or for adjusting signal quality is also available on the AMX AutoPatch CD. For details, see the individual program’s Help file.

Control Options

Optima systems support three different protocols: BCS (as ASCII characters sent through an RS-232 port), XNNet, and TCP/IP. Several different control options are available for Optima systems. Multiple control methods can be used on the same system.

Front Control Panel or Remote Control Panel

AMX AutoPatch control panels, either front or remote, control an Optima’s switches and attributes. Although control panels are optional, we recommend one per system for routing verification, redundant control, and troubleshooting. If the system has a control panel, see the applicable Control Panel Instruction Manual on the AMX AutoPatch CD or at www.amx.com.

NetLinx

The Optima is NetLinx® compatible. For specific control programming information, contact your AMX representative.

Control Software

Optima enclosures can be controlled using AMX AutoPatch software:

 APControl 3.0 – for control and scheduling

 Uses serial port located on the CPU

 Runs on a PC connected to the serial port

 Download from the AMX AutoPatch CD or from www.amx.com

 APWeb Server (TCP/IP) – for control, diagnostics, and third-party access

 Uses serial port located on the CPU for connecting to an APWeb Server Module or uses

an APWeb expansion board

 Accessed through a TCP/IP interface, such as, a web browser (e.g., Internet Explorer)

 Contact AMX regarding limitations and conditions for operating an Optima on a

company LAN (Local Area Network)

Overview & General Specifications

Optima Instruction Manual

BCS Serial Control Protocol

The Optima can be controlled with an external serial controller that sends and receives ASCII characters via an 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 (such as, HyperTerminal) running on a PC. For information on BCS commands, see the BCS Protocol Instruction Manual on the AMX AutoPatch CD or at www.amx.com.

Third-Party Controllers

A third-party controller can also be attached to an Optima enclosure. If using a third-party controller, see the controller documentation for operating instructions.

Optima Instruction Manual

Installation & 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.

Chassis Accessibility

Make sure the front and rear panels of the enclosure are accessible, so that you can monitor the LED indicators. Leaving adequate clearance at the rear will also allow for easier cabling and service.

Power

Installation & Setup

The source’s electrical outlet should be installed near the router, easily accessible, and properly grounded. Power should come from a building branch circuit. We recommend using a dedicated line for the system’s power. Use a minimum breaker current rating of 15 A for 110 V or 30 A for 230 V. To avoid an overload, note the power consumption rating of all the equipment connected to the circuit breaker before applying power.

General Hazard Precautions

These recommendations address potential hazards that are common to all installations:

Elevated Operating Temperature

The maximum rated ambient temperature for Optima enclosures is 110° F (43° C).

All equipment should be installed in an environment compatible with the manufacturer’s maximum rated ambient temperature. In a closed or multi-unit rack assembly, the operating ambient temperature of the rack environment may be greater than the ambient room temperature.

Caution: To protect the equipment from overheating, do not operate in an area that exceeds 110° (43° C) and follow the clearance recommendation below for adequate airflow.

Airflow Restriction

Optima enclosures are designed to adequately dissipate the heat they produce under normal operating conditions; however, this design is defeated when high heat producing equipment is placed directly above or below an enclosure.

Caution: To prevent overheating, avoid placing high heat producing equipment directly above or below the enclosure. The system requires a minimum of one empty rack unit above and below (three empty rack units are recommended). Verify that the openings on the sides of the enclosure are not blocked and do not have restricted air flow.

Installation & Setup

Optima Instruction Manual

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., plugging into a power strip), pay particular attention to supply connections.

Caution: For proper start up, turn on all power switches for the AMX AutoPatch equipment at the same time before applying power to the source and destination devices. We recommend attaching all power cords to a surge protector and/or an AC line conditioner.

Unpacking

The Optima is shipped with one enclosure per shipping box. The invoice is sent separately; a packing slip is attached to the outside of each box. Each box contains the following items:

 Enclosure

 Standard US power cord (if shipped within the US)

 Rack ears (with 8 screws per set)

 Link cables (provided with multi-enclosure systems)

 Other enclosure products as needed

The documentation in the first box includes:

 AMX AutoPatch Optima Quick Start Guide

 AMX AutoPatch Linking Enclosures Quick Start Guide (for multi-enclosure systems)

 AMX AutoPatch CD

 AutoPatch Optima Connector Guide

For orders comprising multiple enclosures, the shipping boxes are marked as “Box __ of __,” where the first blank is the box number and the second blank is the total number of boxes in the shipment.

Unpacking Tips

 Before fully unpacking the enclosure(s), inspect the shipping box(es) for any signs of damage.

If a box is partially crushed or any sides have been broken open, notify the shipping agency immediately and contact your AMX representative (see the warranty on the AMX AutoPatch CD or at www.amx.com).

 Once unpacking is complete, closely check the physical condition of the enclosure.

 Collect all documentation.

Note: Please save the original shipping container and packing materials. AMX is not responsible for damage caused by insufficient packing during return shipment to the factory. Shipping boxes are available; contact your AMX representative for details.

Installation & Setup

Optima Instruction Manual

Rack Installation & 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 (page 21).

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.

Required items for rack installation:

 Enclosure(s)

 Standard EIA 19 in. (48.26 cm) rack

 Rack ears (with 8 screws per set)

 Screwdriver

 Screws that fit your rack for mounting the enclosure(s)

 Power cord(s)

 Link cables and equipment (included with multi-enclosure systems)

Optional items for rack installation:

 Surge-protector(s) – highly recommended

 A laptop computer or PC with a null modem cable

(for communication with the Optima via the RS-232 serial port)

Installation Recommendations

The following is a list of installation recommendations:

 Write the system’s serial number in an easily accessible location before installing the Optima

in a rack. The system’s serial number is located in two places on the enclosure; on the left rear and on the left side of the enclosure (near the power receptacle).

 Use an earth-grounded power cord / system with the Optima.

 Attach all power cords to a single surge protector and/or an AC line conditioner.

 Apply power to the Optima enclosure(s) before applying power to its source

and destination devices.

Installation & Setup

Optima Instruction Manual

Optional

Installation Procedure

A flow chart showing the installation sequence is in FIG. 4. The procedure following provides general steps with references to detailed information found in later sections of the manual.

Caution: To prevent overheating and airflow restriction, avoid placing high heat producing equipment directly above or below the enclosure. The system requires a minimum of one empty rack unit above and below (three empty rack units are recommended). Verify that the openings on the sides of the enclosure are not blocked and do not have restricted air flow.

FIG. 4 Installation procedure

To install an Optima:

Attach the rack ears to the enclosure(s) and mount it in a rack (page 21).

2. If applicable – For multi-enclosure systems, link them according to the information starting on

page 21.

3. Following the “AutoPatch Optima Connector Guide” (shipped with each system), attach only the

first two source and destination devices (see “Attaching Inputs & Outputs” starting on page 32).* Do not apply power to the devices until after the Optima has power (Step 5).

4. Optional – Establish communication with an external control device (page 28).

5. Attach power cords to each enclosure, then turn on the entire system (see “Applying Power &

Startup” on page 34).

We recommend using a surge protector and/or an AC line conditioner.

6. Execute a test switch to ensure the system is working properly (see “Executing a Test Switch” on

page 37).

7. When the test switch works correctly, attach the remaining source and destination devices (refer to

the “AutoPatch Optima Connector Guide” and to the quick start guides for any applicable conversion modules).

* If the installation includes paralleling inputs, see “Appendix C – Paralleling Inputs” on page 61. * If the installation includes 8x8 DVI boards, see page 117 for special installation information.

Installation Options

Additional installation tasks may include creating the following:

 Custom Channel Names – See “Appendix A – Managing Configuration Files” starting on

page 41.

 Local Presets – See “Appendix A – Managing Configuration Files” starting on page 41.

 Global Presets – See the BCS Protocol Instruction Manual on the AMX AutoPatch CD or at

www.amx.com.

Installation & Setup

Optima Instruction Manual

Special Installation Cases

Depending on the system, additional setup information may apply:

 Parallel Inputs – If the system is configured to route parallel inputs, see page 61 for cabling

information.

 8x8 DVI Boards – If necessary, use the EDID Programmer software for programming the

DVI boards (see page 119). The EDID Programmer is located on the AMX AutoPatch CD (also available at www.amx.com). If using the four high-amperage output connectors on a board to power the first four destination devices, see page 118.

Rack Installation

To install an enclosure in a rack:

Align the holes on one of the rack ears with the empty holes on the side of the enclosure (FIG. 5); insert and tighten each of the four screws provided.

FIG. 5 Attach rack ears to the sides of the enclosure

2. Repeat Step 1 for the other rack ear.

3. Place the enclosure in the rack and attach front-mounting screws to hold it firmly in place (repeat

for any additional enclosures).

Tip: You may find it easiest to install enclosures and other equipment starting at the top and moving down from there, keeping in mind that the optimal viewing angle for a control panel is eye level.

Linking Enclosures

Linking enclosures allows control information to pass between them. The enclosures are linked using the Ethernet ports on the CPUs, which provide consistent control speed. In a multi-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.

Caution: AMX AutoPatch systems should only be linked in their own isolated networks.

Installation & Setup

Optima Instruction Manual

If any of the linked enclosures were not part of the original system, contact technical support (see page 39) for important information not included here.

An Optima can be linked directly to another Optima, to a Precis 500 MHz, or to an Epica DG enclosure with the appropriate cable because they all use Ethernet 10Base-T (10/100) connectors for linking (see page 24).

An Optima can be linked to 10Base-2 enclosures (e.g., Modula, 8Y-3000, Epica-128, or Epica-256 enclosures) using a 10Base-T to 10Base-2 Media (Ethernet) Converter and cables (see page 25).

A switch (or hub) is required to link systems that include at least three Optima enclosures, or include two Optima enclosures and at least one other enclosure with a 10Base-T connector, or include one Optima enclosure and two or more enclosures with 10Base-T connectors (see page 26).

Network Segments

The network segments (the physical network sections as determined by hardware) of a linked system determine the total distance between all the enclosures in a linked system. A switch/hub or a media converter indicates the start of a new network segment. See the directions for the individual type of system for more information regarding network segments. 10Base-T (RJ-45) network segments cannot exceed 330 ft. (100 m). 10Base-2 (BNC) network segments cannot exceed 500 ft. (150 m).

Important: Enclosures must be cabled correctly after linking. To ensure that you are attaching the correct signal cables to the correct enclosure, check the “AutoPatch Connector Guide” that shipped with the system, as well as the system / enclosure numbers on the rear of each enclosure.

Enclosures & Ethernet Connectors

The method used for linking depends on the type of Ethernet connector on each enclosure’s CPU. The table below indicates the type of Ethernet connectors available on AMX AutoPatch enclosures.

Enclosure Ethernet 10Base-T* (RJ-45) Ethernet 10Base-2 (BNC)

Optima

Epica-128 & Epica-256

Epica DG

8Y-3000

Modula

Precis 500 MHz

* The RJ-45 port may be labeled either “Link” or “10/100” for 10Base-T.

Link Cables & 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. Contact your AMX representative for details.

Link Cables & Equipment in Optima Linked Systems

Enclosure −> Cable −> Converter −> Cable −> Enclosure

Optima

RJ-45 crossover – – Optima

RJ-45 crossover – – Epica DG

RJ-45 straight-through patch Media Converter RG-58 coax Epica-128 & Epica-256

RJ-45 straight-through patch Media Converter RG-58 coax 8Y-3000

RJ-45 straight-through patch Media Converter RG-58 coax Modula

RJ-45 crossover – – Precis 500 MHz

Installation & Setup

Optima Instruction Manual

Communication Status indicator

Green LED – Speed Status

Amber LED – Link

Link Cables & Equipment List

 RJ-45 Crossover Cable: use to connect 10Base-T enclosures to a Media Converter or

to a Multi-Port Switch (also used for direct linking between 10Base-T enclosures). The cable is wired to TIA/EIA-568-A on one end and TIA/EIA-568-B on the other end.

 RJ-45 Straight-Through Patch Cable: use to connect a 10Base-T enclosure to

a Media Converter or to a Multi-Port Switch. Both ends of the cable are wired to TIA/EIA-568-A.

 RG-58 Coax Cable: use to connect a 10Base-2 (BNC) enclosure to a Media Converter (also

used to daisy chain 10Base-2 enclosures).

 Media Converter: use when linking 10Base-T (RJ-45) enclosures to 10Base-2 (BNC)

enclosures.

 Multi-Port Switch: use when linking some types of multi-enclosure systems.

Ethernet Connector LEDs

The 10Base-T Ethernet (RJ-45) connector on the Optima CPU has two LEDs that indicate communication status when the enclosure is linked to an active system (FIG. 6).

FIG. 6 Ethernet connector LEDs

The LEDs indicate the following:

 Green LED on – speed status is 100 Mbps

 Green LED off – speed status is 10 Mbps

 Amber LED on – link status is active

Note: The Comm (Communication Status) indicator at the top of the CPU board indicates if there is Ethernet traffic on the system.

Installation & Setup

Optima Instruction Manual

System & Enclosure Numbers

RJ-45 Crossover Cable Max. 330 ft. (100 m)

Linking an Optima to an Optima, a Precis 500 MHz, or an Epica DG

An Optima can be directly linked to another Optima or to a Precis 500 MHz or to an Epica DG via the Ethernet ports.

The total distance between the two linked enclosures cannot exceed 330 ft. (100 m).

Cable Length Requirements

Network Segment Cable Type Maximum Distance

Optima to Optima or Precis 500 MHz or Epica DG

RJ-45 crossover 330 ft. (100 m)

To link an Optima to an Optima, Precis 500 MHz, or Epica DG:

Insert one end of the crossover cable into the first Optima’s 10/100 (RJ-45) port.

2. Insert the other end of the crossover cable into the 10/100 (RJ-45) port on the second Optima

(Precis 500 MHz or Epica DG).

An Optima 3 RU linked to an Optima 2 RU

FIG. 7

When power is applied, the Ethernet connector LEDs illuminate indicating communication status (see page 23).

Installation & Setup

Optima Instruction Manual

The total length of all cables between the Media Converter and the last enclosure in a daisy chain cannot exceed 500 ft. (150 m).

Media Converter

RG-58 Coax Cable

Straight-Through Patch Cable

T-Connector

50-ohm Termination Connector

Linking an Optima to a Modula, 8Y-3000, Epica-128, or Epica-256

An Optima enclosure can be linked to an enclosure with an Ethernet 10Base-2 connector (Modula, 8Y-3000, Epica-128, or Epica-256) by using a Media Converter. Additional 10Base-2 enclosures can be daisy-chained off the first one.

Cable Length Requirements

Network Segment Cable Type Maximum Distance

Optima to Media Converter

Media Converter to last enclosure in daisy chain RG-58 coax 500 ft. (150 m) total

RJ-45 straight-through patch 330 ft. (100 m)

Important: Attach 50-ohm termination connectors to the open ends of the T-connectors on the Media Converter and on the last enclosure of the cable run.

To link an Optima to a Modula, 8Y-3000, Epica-128, or Epica-256:

Insert the RJ-45 straight-through patch cable into the Optima enclosure’s 10/100 (RJ-45) port.

2. Insert other end of the cable into the Media Converter’s 10/100 (RJ-45) port.

3. Fasten a T-connector to the Media Converter’s BNC connector.

4. Attach an RG-58 coax cable to the T-connector.

5. Add a 50-ohm termination connector to the other end of the T-connector.

6. Fasten a T-connector to the Ethernet 10Base-2 (BNC) connector on the second enclosure’s CPU.

7. Attach the other end of the RG-58 coax cable to the T-connector.

8. If applicable – Attach additional enclosures with T-connectors and RG-58 coax cables.

9. Add a 50-ohm termination connector to the open end of the T-connector on the last enclosure of the

cable run.

An Optima 2 RU linked to two Modula enclosures

FIG. 8

When power is applied, the Ethernet connector LEDs illuminate (see page 23).

Installation & Setup

Optima Instruction Manual

RG-58 Coax Cable

Media Converter

Straight-Through Patch Cable

5-Port Switch

The total length of all cables between the Media Converter and the last enclosure in a daisy chain cannot exceed 500 ft. (150 m).

50-ohm Termination Connector

Linking More Than Two Enclosures

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. 9 shows a system with two Optima enclosures and a Modula enclosure linked using a 5-Port Switch and a Media Converter.

Cable Length Requirements

Network Segment Cable Type Maximum Distance

Optima to Multi-Port Switch

Multi-Port Switch directly to another type enclosure RJ-45 straight-through patch 330 ft. (100 m)

Multi-Port Switch to Media Converter RJ-45 straight-through patch 330 ft. (100 m)

Media Converter to last enclosure in daisy chain RG-58 coax 500 ft. (150 m) total

RJ-45 straight-through patch 330 ft. (100 m)

Note: If you have questions regarding cabling or network related issues in conjunction with using a Multi-Port Switch (or hub) for linking enclosures, contact your network administrator.

When attaching multiple enclosures to a Multi-Port Switch, one or more can be connected directly to the Multi-Port Switch (see steps below) and/or one or more can use a Media Converter to connect to the Multi-Port Switch (see steps on page 27). In a system with multiple 10Base-2 enclosures, only one needs to be attached to the Multi-Port Switch with a Media Converter. The rest can be daisy-chained.

To link an Optima enclosure to a Multi-Port Switch:

Insert one end of the RJ-45 straight-through patch cable into the 10/100 (RJ-45) Ethernet port on the Optima enclosure.

2. Insert the other end of the RJ-45 straight-through patch cable into the Multi-Port Switch.

3. Repeat Steps 1 and 2 for enclosures with 10Base-T ports.* Go to page 27 for 10Base-2 ports.**

* Applies when linking an Optima, a Precis 500 MHz, or an Epica DG to a Multi-Port Switch.

** Applies when linking a Modula, a 8Y-3000, an Epica-128, or an Epica-256

Two Optima enclosures linked to a Modula enclosure

FIG. 9

Installation & Setup

Optima Instruction Manual

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 10Base-2 Ethernet connector to Multi-Port Switch:

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. Add a 50-ohm termination connector to the open end of the T-connector on the last enclosure of the

cable run.

5. Fasten a T-connector to the Media Converter’s BNC connector.

6. Attach the other end of the RG-58 coax cable to the T-connector on the Media Converter.

7. Add a 50-ohm termination connector to the open end of the T-connector on the Media Converter.

8. Insert one end of the RJ-45 straight-through patch cable into the 10/100 (RJ-45) Ethernet port on the

Media Converter.

9. Insert the other end of the RJ-45 straight-through patch cable into the Multi-Port Switch.

When power is applied to the enclosures, the Ethernet connector LEDs illuminate indicating communication status (see page 23).

* Applies to Modula, 8Y-3000, Epica-128, and Epica-256 enclosures.

** The total length of all RG-58 coax cables between the Media Converter and the last enclosure in the daisy chain cannot exceed 500 ft. (150 m).

Installation & Setup

Optima Instruction Manual

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 usually connect via the XNNet (Link A) connector

Important: The Ethernet (10/100) connector on the CPU is not a TCP/IP interface and is used primarily for linking enclosures (see page 21).

Control Options

The communication protocols listed above are used for these control options:

NetLinx

AMX AutoPatch Distribution Matrices are NetLinx information, please contact your AMX representative.

AMX AutoPatch Remote Control Panels & SBCs

AMX AutoPatch remote control panels (CP-15 and CP-20A) and other AMX AutoPatch control devices (SBC, Preset SBC, etc.) usually connect to the XNNet Link (Link A) connector on the CPU board. For instructions for attaching an external controller to the XNNet connector, see page 31. For specific information, see the product documentation.

APControl 3.0

APControl 3.0 software (for control and scheduling) runs on a PC connected to an Optima via the serial port (DB-9) port and is available on the AMX AutoPatch CD. APControl 3.0 has a setup wizard that discovers the system’s configuration information.

Compatible

compatible. For specific control programming

APWeb (TCP/IP)

The APWeb Server (for control, diagnostics, and third-party access) is accessed through a TCP/IP interface, such as, a web browser (e.g., Internet Explorer). An APWeb expansion board or an APWeb Server module is required for APWeb. For setup and operation information, see the APWeb Expansion Board chapter on page 145 or APWeb Server Module’s documentation on the AMX AutoPatch CD and at www.amx.com.

Important: Contact AMX regarding limitations and conditions for operating an Optima on a company LAN.

BCS (Serial) Control

AMX AutoPatch has developed a command language, BCS (Basic Control Structure), for executing control operations and for diagnostic purposes. BCS commands are issued via a terminal emulation

program, such as Windows

HyperTerminal. For information on BCS commands, see the

BCS Protocol Instruction Manual on the AMX AutoPatch CD or at www.amx.com.

Third-Party Controllers (Serial)

Third-party controllers connect to the serial port (DB-9) on the CPU. If using a third-party controller, see the controller documentation for setup and operating instructions.

Note: Advanced programmers who want to design their own control programs can use AMX

AutoPatch XNNet protocol. The AMX AutoPatch CD includes the XNNet Communication Library, an interface library that supports C, Java, and Visual Basic and has examples of the XNNet protocol in use.

Installation & Setup

Optima Instruction Manual

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 serial port (DB-9) on the enclosure’s CPU. 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., HyperTerminal).

PC Requirements for APControl 3.0

 Windows XP

 Java Runtime Environment (JRE): v1.4.2 or the latest version

 Minimum Hardware: 166 MHz, 128 MB RAM, 20 MB free disk space, 800x600 display

 Recommended Hardware: 2.0 GHz, 512 MB RAM, 20 MB free disk space,

Professional or Windows 2000®

1280x1024 display

 Serial port

PC Requirements for BCS

 Windows XP

 Terminal emulation program

 Serial port

Professional or Windows 2000®

Connecting Serial Controllers to DB-9 Port

To establish external serial control for RS-232 (null modem serial cable):

FIG. 10 RS-232 null modem pin diagram, no hardware flow control

Use a null modem cable that matches the pin diagram in FIG. 10 for RS-232 without hardware flow

control. AMX AutoPatch equipment requires pins 2, 3, and 5 only.

Installation & Setup

Optima Instruction Manual

2. Plug one end of the null modem serial cable into the serial port on the enclosure (FIG. 11)

FIG. 11 Attach null modem serial cable to serial port

3. Plug the other end of the serial cable into the serial port on the serial

controller/device.

4. Open the serial communication software and set the port settings to match

the Optima default settings (see table to the right). In addition to the default baud rate of 9600, Optima enclosures support baud rates of 19200, 38400, and 57600. The settings on the PC serial communication software and the enclosure must correspond to each other. If a change is required to make them match, changing the PC’s settings is preferable. If you decide to change the enclosure’s settings instead, use XNConnect (see the Help file).

Optima

Serial Port Settings

Baud 9600

Data Bits 8

Parity None

Stop Bits 1

Flow Control None

Caution: To avoid system damage, follow the power-up sequence on page 34. We recommend attaching all power cords to a surge protector and/or AC line conditioner.

5. If not already on, apply power first to the Optima enclosure and then to the source and destination

devices (see “Applying Power & Startup” on page 34).

6. Set up and run the desired method of control:

 NetLinx

 APControl 3.0 – Install and open the program (located on the AMX AutoPatch CD).

compatible controller – Contact your AMX representative.

Follow the setup wizard, which will discover the system’s configuration information and open the APControl Launchbar.

 Terminal emulation (HyperTerminal) – Open the program, select the COM port, and check

that the settings match those in the Optima Serial Port Settings table above (if COM port settings do not match, enter the applicable values from the Optima table). Click OK. A short splash screen appears.

7. Execute a test switch to ensure the Optima is working properly

(see “Executing a Test Switch” on page 37).

Installation & Setup

Optima Instruction Manual

Attaching External XNNet Controllers

An XNNet device is any device that sends and receives XNNet protocol over the Link A (XNNet) port. AMX AutoPatch XNNet control devices include remote control panels, e.g., the CP-15 and CP-20A. AMX AutoPatch XNNet accessory devices include SBCs and Preset SBCs.

The instructions below are for attaching a device to the Link A (XNNet) port, found on the CPU board (3 RU enclosures) or on the XNNet Expansion board (2 RU enclosures). For more information, see the individual device’s documentation.

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) total, including linked panels

To establish a Link A port connection with an XNNet device:

Attach one end of the XNNet link cable to the corresponding port on the device (see the individual

product documentation).

2. On the Optima’s CPU, unplug the Link A (XNNet) connector.

3. Loosen the screws on the Link A connector.

4. Insert the two wires of the XNNet link cable from the device into the Link A connector leaving the

center slot empty (see FIG. 12). Note that either wire can be inserted into either of the outer slots.

FIG. 12 Insert the wires into the XNNet connector on the CPU

5. Tighten both screws and plug the connector back into the CPU.

6. If not already on, apply power first to the Optima enclosure before applying power to the XNNet

device (see “Applying Power & Startup,” page 34).

7. Execute a switch to ensure the Optima is working properly (see page 37).

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Optima Instruction Manual

Video Outputs

Audio Outputs

Video Inputs

Audio Inputs

Attaching Inputs & Outputs

Input and output connectors are the attachment points for source and destination devices that connect to the system. Looking at the rear of the 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.

The number and type of connectors depend on the number and type of input/output boards. Input and output connectors are numbered separately. The connector numbers for each board read left to right and are either directly above or below the connector (or connector pair). This numbering pattern continues on each board (FIG. 13).

For control purposes, signals can only be routed from inputs on one board to outputs on the same board because each board in an Optima has its own switching matrix.

When attaching input and output signal cables, refer to the sheet labeled “AutoPatch Optima Connector Guide” that shipped with the system. The guide shows where to attach each signal cable on the rear of each enclosure. The system’s serial number is in two places on the Optima enclosure; left rear and left side (near the power receptacle). The label on the side also has the enclosure number, referred to as the chassis number. Follow the guide exactly; the system was programmed at the factory to operate only as indicated on the “Connector Guide.”

Before connecting all input and output cables, attach only the first two inputs and outputs and execute a test switch (see page 37). When the test switch is successful, attach the rest of the input and output cables.

FIG. 13 Numbering starts at the left for each input & output section

For board connector information and specifications, see the specific board chapter in this manual. For information on adding or replacing boards, see “Appendix D – Adding or Replacing I/O Boards” on page 63.

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Optima Instruction Manual

Signal Types & Connectors

Signal types and connectors for an Optima enclosure could include those listed in the table below.

Signal Type Connector Type

Analog video (composite) BNC

S-Video S-Video

Y/c BNC

RGBHV HD-15

Wideband Video (300 MHz & 500 MHz) BNC

DVI-D DVI-I

Digital video (HD-SDI & SD-SDI) BNC

Analog audio – stereo (balanced or unbalanced) Pluggable 5-position terminal block

Digital audio – S/PDIF & TosLink Coaxial (RCA) & optical

Video Connectors

The video BNC connectors are color coded; the white connectors are inputs and the black connectors are outputs. In addition, the first connector on each board has a colored band that designates the signal type of that board.

Signal Type = Color of Band

RGBHV RGBS Y/Pb/Pr Y/c Composite

R = Red R = Red

G = Green G = Green

B = Blue B = Blue

H = White S = Black

V = Black

Y = Green Y = Yellow V = Yellow

Pb = Blue C = Black

Pr = Red

Audio Connectors

For information on wiring specific types of connectors, see the specific board chapter in this manual.

Installation & Setup

Optima Instruction Manual

Applying Power & Startup

The enclosures’s universal power receptacles 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. Power should come from a building branch circuit. We strongly recommend using a dedicated line for the system’s power. Use a minimum breaker current rating of 15 A for 110 V or 30 A for 230 V. To avoid an overload, note the power consumption rating of all the equipment connected to the circuit breaker before applying power.

Caution: To avoid system damage, turn on all power switches for the AMX AutoPatch equipment at the same time recommend attaching all power cords to a surge protector and/or an AC line conditioner.

Power-Up Sequence

To apply power:

Attach the first two source and destination devices. Do not apply power to the source and destination devices until Step 7.

2. Optional – Attach an external controller (see page 28).

3. Plug the power cord into the power receptacle on the enclosure (repeat for multiple-enclosure

systems).

4. Plug the other end of the power cord(s) into a power strip (we recommend a 30 A power strip) that

is turned off.

5. Turn on the power strip (to all enclosures if applicable).

The Power Indicator illuminates.

6. Apply power to any external control device/system.

7. Apply power to the source and destination devices.

For startup information on specific types of control before executing a test switch, see page 28. The system is ready for a test switch. See “Executing A Test Switch” on page 37.

before applying power to the system’s source and destination devices. We

Installation & Setup

Optima Instruction Manual

Control Panel Startup

After applying power and turning on the enclosure(s), the LED on the control panel illuminates and displays the menu screen. (See FIG. 14 and FIG. 15 for examples of control panel startup screens.) The system is ready for a test switch (see page 37).

FIG. 14 Function Menu screen on the CP-15

FIG. 15 Main Menu screen on the CP-20A

Note: For instructions on checking the software version, see the applicable Control Panel Instruction Manual.

Installation & Setup

Optima Instruction Manual

AMX AutoPatch Optima signal router

Host software: v3.1.0

Hardware driver: v0.0.11 R

Built on Jan 16 2008 12:31:53

XNet address: 0x0003.

Ready

Serial Control Device Startup

If you have not already done so, attach the serial control device to the enclosure (see page 28) and open the control program.

NetLinx

AMX AutoPatch Distribution Matrices are NetLinx information, please contact your AMX representative.

APControl 3.0

If you are using APControl 3.0, install and open the program. Follow the directions in the setup wizard. As part of the setup wizard, APControl will discover the system’s configuration information. From the Launchbar menu, select Views / CrossBar and click on the crosspoints to execute switches.

APWeb

For startup information, see the APWeb Server Module documentation.

HyperTerminal

When power is applied to the enclosure, HyperTerminal displays a one-line splash screen followed by “Ready” (FIG. 16). The system is ready for a test switch (see page 37). If you need to see advanced system information, enter ~scr! to view a long splash screen.

Compatible

compatible. For specific control programming

See FIG. 16 for an example of a short splash screen (your system’s splash screen may differ). The short splash screen provides the following information:

FIG. 16 Power-up splash screen in HyperTerminal

Note: AMX reserves the right to add to the contents of the splash screen at any time, without notice.

 Host software – version of the initial operating system (IOS)

 Hardware driver – the firmware version

 Built – date the software was built

 XNet address – enclosure’s XNNet identification number

Installation & Setup

Optima Instruction Manual

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 attached, the system is ready to execute switches when it ships from the factory.

The first two source and destination devices must be attached to the input and output connectors as indicated in the “AutoPatch Optima Connector Guide” that is shipped with each system (for specific board connector information and specifications, see the specific board chapter in this manual). After the devices are connected, power must be applied to the enclosure and then to the devices before executing a test switch.

Note: If the signal from the source or destination device is a component signal that requires being attached to multiple input or output connectors (e.g., an RGsB signal that requires three connectors), all of the signal cables for that signal must be attached before executing the test switch.

A test switch can be executed from the following:

 A front or remote control panel

 NetLinx

 Control software, such as, APControl 3.0 or APWeb

 BCS (Basic Control Structure) commands over an external controller

 An external third-party controller

compatible controller

Executing a Test Switch

Before executing the test switch, make sure the first two source devices and the first two destination devices are connected to the input and output connectors exactly as shown on the “AutoPatch Optima Connector Guide” that is shipped with each system. Depending on the signal type (e.g., component signals), you may need to attach multiple input and output cables.

Note: Since each board in an Optima has its own switching matrix, signals can only be routed from inputs on one board to outputs on the same board.

When executing a test switch, we suggest routing Input (source) 1 to Output (destination) 2 on the virtual matrix or level indicated on the “AutoPatch Optima Connector Guide.”

Control Panel

Directions for executing switches using the control panel specific to your system can be found in the applicable Control Panel Instruction Manual on the AMX AutoPatch CD or at www.amx.com. Depending on the control panel, the term virtual matrix or level may appear on the LCD screen. When controlling an Optima, these terms are interchangeable.

NetLinx

For executing and disconnecting switches using a NetLinx

Compatible

compatible controller, contact your AMX

representative.

APControl 3.0 or APWeb

Directions for executing and disconnecting switches using APControl 3.0 are found in its Help file. For directions for executing switches using APWeb, see the APWeb documentation.

Installation & Setup

Optima Instruction Manual

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 (such as Windows

HyperTerminal). The settings on the PC serial communication software and the enclosure must correspond to each other. For setting information, see page 30.

When using HyperTerminal, command characters are entered and sent to the enclosure’s CPU (the command characters appear in HyperTerminal when the enclosure responds). When all of the entered characters appear in HyperTerminal, the command has been successfully executed.

The following test switch routes Input 1 to Output 2 on Level 0 (or use the level indicated on your system’s “AutoPatch Optima Connector Guide”).

To execute a test switch:

Enter the following BCS command line:

CL0I1O2T

When the “T” appears, the system has successfully executed the command. If any other characters appear, the command was not successful. Verify that the source signal is present (visible and/or audible) at the destination.

For a complete list of BCS commands and responses, see the BCS Protocol Instruction Manual on the AMX AutoPatch CD or at www.amx.com.

8x8 DVI Input Boards

After the test switch has executed successfully, the image may need to be adjusted with the EDID Programmer software that is provided on the AMX AutoPatch CD or at www.amx.com (see the DVI board chapter starting on page 111).

Troubleshooting

If the test switch did not execute correctly:

 Check the power indicator on the front of the enclosure.

If it is not illuminated, check the power cords.

 Verify the status of the test switch.

If using BCS commands, enter “SL0O2T”. If “SL0O2T(1)” appears, the test switch is routed. If the status returns as routed correctly, the system established a connection between the specified input and output connectors within the enclosure.

 Check all link and signal connections on the rear of the enclosure(s) to make sure everything is

physically set up correctly.

 Check all power switches on the source and destination devices to make sure they are all

turned on.

 Isolate source and destination equipment and cable problems by patching around the router

using barrel connectors to check the overall signal path.

 Attempt the switch again.

If the switch still does not work, contact technical support (see page 39).

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Optima Instruction Manual

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.

AMX Contact Information

 3000 Research Drive, Richardson, TX 75082

 800.222.0193

 469.624.8000

 Fax 469.624.7153

 Technical Support 800.932.6993

 www.amx.com

Installation & Setup

Optima Instruction Manual

Appendix A – Managing Configuration Files

Optima Instruction Manual

Appendix A – Managing Configuration Files

Applicability Notice

This chapter applies to XNConnect version 2.6.0. (XNConnect’s version information is found under its Help menu.)

This appendix covers basic modifications that can be made to a configuration file using XNConnect software. Appendix B covers advanced configuration modifications. For complete coverage of XNConnect, see the Help file.

Overview

A configuration file contains system* configuration information which is loaded onto the system at the factory. Each enclosure’s CPU references the configuration file, which defines switching behavior. The file can be modified using XNConnect (found on the AMX AutoPatch CD) to include custom channel names and local presets.

Caution: Use XNConnect only if you need to reload the configuration file or to modify your system’s configuration from the original specifications. Make a copy of the current file every time the file is modified.

A copy of the configuration file (with an .xcl file extension) is found on the AMX AutoPatch CD shipped with each system. If you lose the AMX AutoPatch CD, either download XNConnect from the AMX website and see Discovering a System on page 44 or contact technical support (see page 39) with your system’s serial number for a replacement file. If making any modifications other than customizing channel names or creating local presets, provide technical support with a copy of the modified file for future support.

This chapter covers the following topics:

 Installing XNConnect

 Opening a configuration file

 Discovering a system

 Navigating the interface

 Customizing channel names (labels)

 Creating local presets

 Loading a configuration file

* A system can be a standalone matrix switcher or multiple matrix switchers with or without additional controllers and accessories.

Appendix A – Managing Configuration Files

Optima Instruction Manual

Installing XNConnect

Use this software only if you need to customize or change the configuration information from the original specification.

Even if XNConnect is already on your PC, install the newest version that shipped on the same CD as the configuration file. We strongly recommend uninstalling the old version of XNConnect before installing a new version.

System Requirements

 Windows 2000

 233 MHz processor

 Minimum of 128 MB of RAM

 20 MB of available hard drive space

 800x600 screen resolution (1024x768 is recommended)

 Serial port and RS-232 null modem cable

If you cannot locate the AMX AutoPatch CD that shipped with your system, see Discovering a System on page 44.

, Windows NT®, or Windows XP Professional

To install XNConnect from the AMX AutoPatch CD:

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 Release Notes to read about the software before installation.

5. Select Install.

6. Follow the directions in the subsequent dialog boxes.

Note: The newest version of XNConnect is available at www.amx.com. An INI file Updater can also be found on the AMX website for updating XNConnect with information for new support devices and I/O boards.

Appendix A – Managing Configuration Files

Optima Instruction Manual

Getting Started dialog box

Opening a Configuration File

The process of modifying a configuration file starts by opening it with XNConnect. After the modifications are complete, the new configuration information must be loaded onto the system to implement the changes.

Note: Even if XNConnect is already on your PC, install the newest version that shipped on the same CD as the configuration file. We strongly before installing a new version.

If you cannot locate the original factory configuration file, see Discovering a System on page 44.

Caution: Use XNConnect only if you need to reload the configuration file or modify your system’s configuration from the original specification. Make a copy of the original file every time the file is modified.

To launch XNConnect:

From the Start menu, select Programs.

2. Select AutoPatch Applications (or other file group you specified during the installation).

3. Select the XNConnect folder.

4. Select XNConnect.

The XNConnect program opens.

recommend uninstalling the old version of XNConnect

5. From the Getting Started dialog box, click Open Configuration File.

(If the dialog box does not appear, from the File menu select Open.)

6. Use the standard Open dialog box to locate and open your configuration (.xcl) file.

The default location is in the MyXCL folder on the AMX AutoPatch CD.

7. Using Save As (under the File menu), make a duplicate copy of the file with a new name and save it

to the PC. (We strongly recommend making a duplicate copy every time the file is modified.)

The file is ready to be modified. If changes are made, the new file must be loaded onto the system to implement the changes (see page 50).

Appendix A – Managing Configuration Files

Optima Instruction Manual

Discovering a System

If you cannot locate your AMX AutoPatch CD with the original configuration file, contact technical support (see page 39) with your system’s serial number for a replacement copy of the original configuration file. Or download XNConnect and the INI Updater from www.amx.com and follow the instructions below to discover your 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:

Disconnect any third-party control devices from the Optima enclosure’s serial port.

2. Connect the enclosure* to your PC (see page 28).

3. Launch XNConnect (see page 43).

4. Open the Communication menu; select Serial Port.

5. Open the Communication menu again; select Change Comm Settings. Check the settings for the

selected port (the default is Com 1, baud rate 9600) and adjust if necessary.

6. Optional – Click the Test button to verify that communication has been established with the Optima.

Click OK.

7. From the File menu, select Discover System (the discovery may take a few minutes).

8. Save the discovered system’s configuration file, make a duplicate copy with a new name, and save it

to the PC. The new configuration file is ready to be modified. If changes are made, the new file must be loaded onto the system to implement the changes (see page 50).

* For systems with multiple enclosures, you can connect any of the enclosures to the PC as long as all of the enclosures are linked together.

Appendix A – Managing Configuration Files

Optima Instruction Manual

Hardware tab Virtual Matrices tab

Highlighted device Properties of highlighted device

Device firmware version

Primary

View of all linked

Components of the primary devices

devices

AMX AutoPatch devices

Communication settings

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 Matrix views (see below). To see the details and components of a device or a virtual matrix, click the plus “+” symbol to the left of the device or the virtual matrix.

Most configuration file modifications involve entering information in a series of dialog boxes that are accessed by right-clicking a hardware device or virtual matrix icon and selecting an option from the shortcut menu. If you have a question regarding an open dialog box, press the F1 key for Help.

Hardware View

The Hardware view displays the system’s hardware, such as enclosures and serial ports.

Virtual Matrix View

The Virtual Matrix view displays properties of the existing virtual matrices. Most common tasks are conducted from this view, including customizing channel names and creating local presets.

FIG. 17 The XNConnect interface showing the Hardware view

Appendix A – Managing Configuration Files

Optima Instruction Manual

Multiple Signal Paths

In Optima systems, each matrix is a signal path. When you select a connector in the virtual matrix 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. 18), the connector for input six contains two signal paths for an S-Video signal:

 S-VidV_IN_006.1 for the “Y” signal path

 S-VidV_IN_006.2 for the “c” signal path

FIG. 18 Input connector properties showing two signal paths for one S-Video connector

Modifying a Configuration File

Modifying a 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 two common tasks: modifying channel names and configuring local presets. For complete coverage of configuration related tasks, see the XNConnect Help file.

Modifying Source & Destination Channel Names

If the system is using APWeb for control, the names for the source and destination channels displayed in the XBar can be customized in XNConnect. The custom names (labels) can be up to 23 characters and cannot contain the following characters: ‘ “ \ = ? < >.

Appendix A – Managing Configuration Files

Optima Instruction Manual

Name Field

Customized Channel Name

Enter Channel Name

Default Channel Name

(displays selected channel)

Selected Channel

To customize the channel names:

In the Virtual Matrices view, click the “+” to the left of the Virtual Matrix.

2. Click the “+” to the left of the Sources or Destinations folder.

3. Right-click the channel you want to rename and select Change Name from the shortcut menu.

4. Enter the new name in the Input Text dialog box and click OK.

The new channel name appears in the Name field.

Note: If a channel is in more than one VM (virtual matrix), you must repeat Step 4 for the channel in each of the VMs.

5. Customize additional channels by repeating Steps 3 and 4.

6. Load the configuration file onto the system (see page 50).

If channel names are the only modifications that have been made to the file, use the “Configure System Namespace” option (found under Configure \ Configure Special – Virtual Matrix).

7. Using Save As (under the File menu), make a duplicate copy of the modified file with a new name

and save it to the PC. (We strongly recommend making a duplicate copy every time the file is modified.)

Caution: The system must not be actively switching when loading this information onto the system.

Appendix A – Managing Configuration Files

Optima Instruction Manual

Creating Local Presets

A local preset is a predetermined collection of switches (on the same virtual matrix) to be routed simultaneously. Executing a local preset affects only those inputs and outputs specified, not the whole system. Local presets are defined using XNConnect and can be executed using a control panel (local or remote) or using BCS commands as part of a macro in APControl 3.0 or APWeb or entered in a terminal emulation program. The process for creating local presets involves three dialog boxes that cover managing, naming, and modifying presets.

The instructions below 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:

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. Optional – Enter a different preset number (local presets do not need to be numbered sequentially).

4. Enter a name for the new preset.

5. Optional – Enter a description.

6. Click OK.

The Modify Preset dialog box opens.

Appendix A – Managing Configuration Files

Optima Instruction Manual

The Disconnected Channels box shows that Output 1 will be disconnected as part of Preset 1.

The Assignment column shows three switches that will be executed as part of Preset 1:

Input 2 to Output 5

Input 3 to Output 6

Input 7 to Output 8

7. For the first switch, click the source channel (input) and one or more destination channels (outputs).

Select multiple destination channels by holding down the Control key while selecting the channels.

8. 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.

9. Disconnect inputs* or outputs as part of the local preset by selecting either the source or destination

channel and clicking the Disconnect button. The input or output appears in its corresponding Disconnected Channels list; the input or output will be disconnected when the local preset is executed.

10. Repeat Steps 7, 8, and 9 for all switches and/or disconnects to be included in the preset.

Note: For information on the other buttons and preset modifications, press F1 while the Manage Local Presets dialog box is open.

11. After all switches for the preset have been assigned, click OK and then close the Manage Local

Presets dialog box.

12. Define additional local presets by repeating the steps.

13. Load the configuration file onto the system (see page 50).

If local presets are the only modifications that have been made to the Configuration file, use the “Configure All Local Presets” option.

14. Using Save As (under the File menu), make a duplicate copy of the modified file with a new name

and save it to the PC. (We strongly recommend making a duplicate copy every time the file is modified.)

Caution: The system must not be actively switching when loading this information onto the system.

* Disconnecting an input will disconnect all outputs it is connected to.

Appendix A – Managing Configuration Files

Optima Instruction Manual

Loading a Configuration File

Once modifications have been made to the configuration file, the new file must be loaded onto the system’s CPU for the changes to be implemented.

There are two basic options for loading a configuration file:

 Load the entire file using the “Configure All” option (see Caution below).

 Load part of the file using one of the “Configure Special” options.

To determine which configuration option to use, see “Configure Menu Commands” in the Help file.

When loading any part of a configuration file, the matrix switcher must not be actively switching. You may want to disconnect any external controllers to ensure that no switches are executed during the loading of the file.

Caution: Using the “Configure All” option or the “Configure All Virtual Matrices” option will erase any global presets (see the BCS Protocol Instruction Manual on the AMX AutoPatch CD or at www.amx.com) that have already been defined for the system.

To load the modified configuration file from XNConnect to the Optima CPU:

Using Save As (under the File menu), make a duplicate copy of the modified file with a new name and save it to the PC. (We strongly recommend making a duplicate copy every time the file is modified.)

2. Connect the Optima enclosure* to the PC (see page 29).

3. In XNConnect, open the Communication menu; select Serial Port.

4. Open the Communication menu again, select Change Comm Settings. Check the settings for the

selected port (the default is Com 1, baud rate 9600) and adjust if necessary.

5. Optional – Click the Test button to verify that communication has been established with the Optima.

Click OK.

6. From the Configure menu, select the appropriate configuration option (for an explanation of

Configuration menu options, see the Help file). The system automatically reboots (applies to non-hardware configuration options only; for hardware, select the appropriate configuration option and then Configure > Reboot All Devices).

* For Optima systems with multiple enclosures, you can connect any of the enclosures to the PC as long as all of the enclosures are linked together.

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Applicability Notice: This appendix applies to XNConnect version 2.6.0.

Overview

Your AMX AutoPatch Distribution Matrix is pre-configured at the factory. It is ready to switch once the source and destination devices are attached. The configuration file does not need any advanced modification unless you change the hardware or want to change or add virtual matrices. Any new equipment for upgrading an existing system will be shipped from the factory along with a new configuration file to be loaded onto the system. We strongly recommend using the new file instead of

attempting to modify the existing configuration file to accommodate the new equipment.

Important: If any modifications are made to the configuration file other than customizing channel names, creating local presets, or changing control panel passwords, provide technical support with a copy of the modified .xcl file for future support.

If your configuration file needs any type of additional advanced modification, we strongly recommend contacting technical support, (see page 39) to request a modified file or ask for assistance.

Caution: Virtual matrix modifications are an advanced feature of XNConnect that should not be attempted unless you are extremely familiar with XNConnect and the AMX AutoPatch Distribution Matrix being configured.

Three advanced virtual matrix related tasks are covered in this chapter:

 Joining (combining) virtual matrices

 Creating breakaway virtual matrices

 Creating a new virtual matrix

Important: Save a back up copy of the existing configuration file if you find it necessary to modify the file for any reason.

Virtual Channels & Virtual Matrices

A system’s configuration allows groups of incoming signals from source devices to be routed through the system and out to destination devices. The signals are grouped into virtual input and output channels in which the channels’ component signals (such as R, G, B, H, and V) can be grouped into a single channel to permit the simultaneous switching of them as an aggregate signal (RGBHV). The resulting virtual channel uses a single input or output number for control purposes.

A virtual channel is assigned to a physical connector or group of physical connectors. The signals in the virtual channels will be switched in unison (e.g., a Y signal and a c signal on a Y/c board are each assigned to a different connector but are switched in unison). A virtual channel can also be a subset of a signal on a single connector (e.g., the left channel of a stereo audio connector).

The virtual input and output channels are then grouped into virtual matrices (VMs) that define where the virtual channels can be routed. A virtual channel on one VM cannot be routed to a virtual channel on another VM. However, a VM can be created that includes multiple VMs. Normally the virtual channels are assigned to a VM in a pattern (see page 59), but they can be assigned individually (see the XNConnect Help file).

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

The VM’s default number and default name can be changed

Repeat for the next VM

Select Sources and/or Destinations

Click OK

Select the first VM and click Add

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.

If one of the VMs to be joined is smaller than the other, the combined VM will only include the number of channels in the smaller VM. For example, if VM 1 is 8x8 and VM 2 is 16x16, the combined VM will include all of the channels of VM 1 and the first 8 input and 8 output channels of VM 2.

Joining a specific subset of channels is not supported at this time. For the same result, join two VMs, delete the unwanted channels from the joined VM, and then collapse the channel gaps (see the XNConnect Help file).

The information in the dialog box below is based on the following scenario. The original system switches 16x16 S-Video on VM 1 and 20x20 stereo audio on VM 3. The two VMs are joined to create VM 0 that switches input and output signals for sixteen pairs of video and audio signals.

Note: For additional information on joining virtual matrices, see the XNConnect Help file. To access the Help file topic for an open dialog box, press F1.

To create a joined virtual matrix:

From the Virtual Matrix menu, select Join Virtual Matrices.

2. Select the first VM to be joined and click Add.

3. Select the second VM to be joined and click Add.

Repeat for any additional VMs.

4. Optional – Under Virtual Matrix Identifiers, change the number and name.

5. Check the Source and Destination check boxes so that both are joined in the new VM.

Click OK.

6. Load the configuration file onto the system; see page 50.

7. Using Save As (under the File menu), make a duplicate copy of the modified file with a new name

and save it to the PC. (We strongly recommend making a duplicate copy every time the file is modified.)

Caution: The system must not be actively switching when loading this information onto the system.

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

Currently Defined Breakaways list

Signals added appear here

Select the signal(s)

Click Add Signal

Click Create Breakaways

The VM’s default number, name and description can be changed

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. The original system was configured to switch RGBHV and stereo signals together on Virtual Matrix 0, and now they need to be switched independently. Two additional virtual matrices, VM 1 (for RGBHV) and VM 2 (for stereo audio), are created to allow the video and audio to switch independently (breakaway).

Note: For additional information on creating breakaways, see the XNConnect Help file. To access the Help file topic for an open dialog box, press the F1 key.

To create the first breakaway:

Right click the VM that the breakaways will be created from.

2. From the shortcut menu, select Define VM Breakaways.

The Define VM Breakaways dialog box appears.

3. Optional – Under the Create New Breakaway section, change the number, name, and description.

4. 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.

5. Click Create Breakaway. Do not close the dialog box.

The VM appears in the Currently Defined Breakaways list.

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

To create the second breakaway:

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. Click OK to finalize the assignments.

10. Load the configuration file onto the system; see page 50.

11. Using Save As (under the File menu), make a duplicate copy of the modified file with a new name

and save it to the PC. (We strongly recommend making a duplicate copy every time the file is modified.)

Caution: The system must not be actively switching when loading this information onto the system.

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

Selected board slot

Signal path number

Board properties

Signals allowed

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). When creating a VM to replace an existing one, delete the old VM or (if reuse is likely) change its number. Always exercise caution and make a backup copy before deleting any part of the existing file.

Optional – To delete an existing VM:

Right click the VM and select Delete.

Creating a new virtual matrix involves creating virtual channels which must be assigned to the physical connectors and grouped into a virtual matrix. For more information on virtual matrices, see page 51. Four dialog boxes are used for creating a virtual matrix. The first is for assigning the signals to the VM; the second for assigning the signals to the physical matrix; the third for selecting the connector assignment method; and the fourth for completing the connector assignments. To access the Help file regarding an open dialog box, press F1.

FIG. 19 Process for creating a new virtual matrix

The Physical Matrix

The virtual channels need to be assigned to the physical matrix in the Assign Signals to Matrices box. The list in this box shows only physical matrices that are capable of routing the selected signal.

To view the properties of a board:

Select the Hardware tab.

2. Expand the enclosure and backplane, and select the slot the board is in.

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

Enter a number and name

Check the signals to be assigned

Click OK

Select the signal

Click Assign Signal

Click OK

Check the settings

Select signal

Select the physical matrix

Click Assign Matrix

Select enclosure

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. To access the Help file topic for an open dialog box, press F1.

To create a new virtual matrix:

From the Virtual Matrix menu, select Add Virtual Matrix.

The Assign Virtual Matrix Signals dialog box opens.

2. Under the Supported System Signals list (use either tab), select the signals for the new VM

(to select multiple signals, hold the down the Control key) and click Assign Signal.

3. Under Virtual Matrix Info, enter a number and a unique name. Click OK.

The Assign Signals to Matrices dialog box opens.

4. From the Available Signals box, select the signal.

5. If applicable – For a multi-enclosure system, from the Enclosure drop down list, select the correct

enclosure.

6. From the Physical Matrix drop down list, select the matrix (see “The Physical Matrix” on page 55).

7. Click Assign Matrix.

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

Specify starting channel

Select Mirror Directions

Select pattern Select Sources (or Destinations)

Specify number of channels

Select signal

Click Assign Signal

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 Matrix 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. Specify the following parameters:

 Under Pattern Type, select the pattern. (Spanning is the most common; for an explanation

of the Spanning and Sequential patterns see page 59.)

 Under Channel Type, select Sources Only.

 If the number of inputs equals the number of outputs, select Mirror Directions to apply

the settings to both inputs and outputs. If the number is not equal, you will need to complete Step 18.

 In the Starting Channel field, enter the first channel number to be included.

 In the Number of Channels to Create field, enter the number of channels needed for the

first signal.

13. Select the first signal from the Available Signals list.

14. If applicable – If not using the entire set of connectors that are available for the signal, change the

Starting Channel, Number of Channels to Create, and Available Connectors as necessary.

15. Click Assign Signal.

16. Repeat Steps 13 through 15 until all of the signals in the Available Signals list have been assigned to

connectors, changing the values for the Starting Channel, Number of Channels to Create, and Available Connectors as necessary.

17. Click OK.

The Manage Virtual Matrix Groupings dialog box opens again.

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.

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

Check connector assignments

Channel tabs

Click Accept Assignments

19. Under Grouped Connectors, check the virtual channel assignment for each connector by selecting

the Source and Destination Channel tabs.

20. Click Accept Assignments if satisfied.

21. Load the configuring file onto the system; see page 50.

22. Using Save As (under the File menu), make a duplicate copy of the modified file with a new name

and save it to the PC. (We strongly recommend making a duplicate copy every time the file is modified.)

Caution: The system must not be actively switching when loading this information onto the system.

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

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. When this pattern is selected, each of the component (standard) signals in an aggregate signal is assigned to a connector on an adjacent board. The same pattern is then repeated for the outputs.

Example

In the Y/c system in FIG. 20, the “Y” component is assigned to the input connectors on the first board and the “c” component to input connectors on the second board. The pattern is repeated for the output connectors. The stereo audio signal is assigned to the input and output connectors on the stereo audio board. The first input channel of VM 0 (audio-follow-video) includes both components of the Y/c signal (the first input connector on each video board), plus the stereo audio signal (the first input connector on the stereo board).

When you switch Input 1 on VM 0, the Y/c and stereo audio signals are routed simultaneously. On VM 0, any of the grouped Y/c input channels and their corresponding stereo pair input channel could be routed to any or all of the twenty available corresponding output channels.

Video and audio breakaway signals can also be routed by using virtual matrices that are configured to do so. In the example below, when you switch Input 1 on VM 1, the Y/c signal is routed. When you switch Input 1 on VM 2, the stereo audio signal is routed.

FIG. 20 Connectors grouped in a spanning pattern

Appendix B – Advanced Configuration: Modifying Virtual Matrices

Optima Instruction Manual

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. 21 the first input channel of VM 0 (audio-follow-video) includes each component of the RGBS signal, plus the stereo audio signal. The R, G, B, and S components are assigned to the first four input connectors on the wideband board. The stereo audio signal is assigned to the first input connector on the stereo audio board. When you switch Input 1 on VM 0, the RGBS and stereo audio signals are routed simultaneously. On VM 0 either of the grouped video input channels (RGBS) and their corresponding stereo pair channel can be routed to either or both of the available corresponding output channels.

Video and audio breakaway signals can also be routed by using virtual matrices that are configured to do so. In the example below, when you switch Input 1 on VM 1, the RGBS signal is routed. When you switch Input 1 on VM 2, the stereo audio signal is routed.

Note: The DVI signals for the system in FIG. 21 switch on a separate virtual matrix.

FIG. 21 Connectors grouped in a sequential pattern

Optima Instruction Manual

Appendix C – Paralleling Inputs

T-Connector

Source cable

This appendix contains directions for cabling and operating a paralleled system.

Important: The system must have been ordered to handle parallel inputs to use these directions. For more information, contact an AMX representative.

An Optima’s switching capability can be expanded by paralleling (“splitting”) inputs. Normally input connectors can only route signals to the output connectors on the same board. Connecting inputs on a board to the corresponding inputs on another board allows source signals to be routed to all available output connectors for each signal on both boards. For example, by paralleling inputs on two 20x20 boards, the set of configuration possibilities expands to 20x40 since the original 20 inputs can be routed to the outputs on both boards.

Note: Splitting a signal more than four times requires a distribution amplifier.

Cabling Parallel Inputs

To parallel inputs between two boards:

Fasten a T-connector to the source cable (FIG. 22).

2. Fasten one end of a short signal cable, which is approximately 3.0 in. (7.6 cm) long, to the

T-Connector and the other end to the input on the first board.

3. Fasten another short signal cable to the remaining end of the T-Connector and to the corresponding

input on the second board. The source is ready to switch to outputs on both boards.

Appendix C – Paralleling Inputs

FIG. 22 Connecting inputs for parallel control

Appendix C – Paralleling Inputs

Optima Instruction Manual

Controlling Paralleled Inputs

For control purposes, the system has been configured so the boards are on different virtual matrices (levels). Each split of the source signal is treated as a separate input signal on a different virtual matrix. Steps for executing switches with a control panel, APControl, APWeb, and BCS commands are provided below (status can be verified in a similar manner). For more control information, see the appropriate manual, supplement, or Help file.

Control Panel

To execute switches on paralleled inputs using a control panel:

Follow the instructions for executing a switch on the control panel, using the virtual matrix (level) for which the first board is configured and selecting the paralleled input (source) and the desired output(s) (destinations).

2. Repeat Step 1 for the second board, using the virtual matrix (level) for which it is configured and

selecting the paralleled input and the desired output(s).

APControl or APWeb

To execute switches on paralleled inputs using APControl or APWeb:

Using the CrossBar (APControl) or XBar (APWeb) for the VM (level) associated with the first board, select the crosspoint for the paralleled input and desired outputs(s).

2. Repeat Step 1 for the second board using the CrossBar or XBar for the second VM (level).

BCS

To execute switches on paralleled inputs using BCS commands:

Enter the command for the first board using its level and selecting the paralleled input and the desired output(s).

2. Enter the command for the second board using its level and selecting the paralleled input and the

desired output(s).

Example:

For a system where the paralleled boards are configured as Level 1 and 2, entering the commands below switches paralleled Input 2 to Output 3 on the first board (Level 1) and also switches paralleled Input 2 to Output 15 on the second board (Level 2).

CL1I2O3T

CL2I2O15T

Appendix D – Adding or Replacing I/O Boards

Optima Instruction Manual

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.

The number of input and output signals an enclosure can switch is determined by the number and type of connectors on each board and by the number of boards. An Optima 2 RU holds up to four boards (or two double boards) while an Optima 3 RU holds up to six boards (or three double boards). I/O board(s) can be replaced or added to an enclosure to expand a system’s capabilities. Expansion boards (e.g., APWeb, XNNet boards) can also be added to an enclosure. For installation instructions for an expansion board, see the chapter for that specific board.

Important: Adding or replacing boards should only be done by personnel trained to handle ESD sensitive parts and assemblies.

Items Required

 Optima I/O board(s)

 Phillips #1 screwdriver

 ESD wristband and cord with alligator clip

Configuration Requirements

 If a board is replaced with the same type of board or if the system was configured for

expansion with the same type of board, the configuration file does not need to be updated.

 If a board is added to a previously empty slot as part of an unplanned upgrade or if a board is

replacing a different type of board, a CD has been included with an updated configuration file, which must be uploaded to the system (see page 70) for the new board to work.

Note: If installing or replacing an 8x8 DVI Board refer to the DVI board chapter (page 111) for information on EDID Programmer software.

ESD Warning: To avoid ESD (Electrostatic Discharge) damage to sensitive components, make sure you are properly grounded before touching any internal Optima materials. Use an ESD wristband and cord with alligator clip attached to a good ground source.

Before starting:

 Unplug the power cord on the rear of the enclosure.

 Label and disconnect all cables (including link cables in a multi-enclosure system).

 If the enclosure is in a rack, remove it and place on the work surface.

Appendix D – Adding or Replacing I/O Boards

Optima Instruction Manual

Screw will be in one of these 2 holes

1a: Remove the five screws indicated (four on top and one on the side).

1b: Remove the rack ear indicated (four screws). Stand the enclosure on this side for Steps 2 and 3.

2a: Remove the three screws indicated.

2b: Remove expansion plate (two screws).

Expansion plate

Screw will be in one of these 2 holes

Removing I/O Boards

To remove an Optima I/O board (or blank board plate):

FIG. 23 Remove 5 screws & rack ear (4 screws)

FIG. 24 Remove 3 screws & expansion plate (2 screws)

Appendix D – Adding or Replacing I/O Boards

Optima Instruction Manual

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

CPU

Board unit

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.

Side slide-key

FIG. 25 Pull CPU/board unit straight out & remove CPU

FIG. 26 Remove side slide-key

Appendix D – Adding or Replacing I/O Boards

Optima Instruction Manual

Remove the two center slide-keys.

Position with gold card edges at top

Spacers

Center slide-keys

Spacers not connected to boards fall free when slide-keys are removed

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.

Double-connector boards will require removal of 2 screws

FIG. 27 Remove center slide-keys (2)

FIG. 28 Remove screw(s) & board or blank board plate

Important: Be sure to install the new board(s) in the correct slot (see the “AutoPatch Optima Connector Guide”). The board’s location must match the system’s configuration information. If a board is installed in the wrong slot, signal routing is affected.

Optima Instruction Manual

Adding I/O Boards

1a: Insert the new board(s).

1b: Replace the screw(s) indicated. Tip the board unit to the left.

Small hole next to screw hole will fit over small raised circle on board

Raised circle

2a: Replace the side slide-key.

2b: Replace the side screw.

2c. Line up the connectors on the CPU unit with the gold card edges on the board unit and push the units together until they snap into place. Stand the CPU/board unit on its slide-key end for Step 3.

Connectors

Side slide-key

To add an I/O board:

Appendix D – Adding or Replacing I/O Boards

FIG. 29 Insert new board(s) & replace screw(s)

FIG. 30 Replace side slide-key & side screw; push board unit into place

Appendix D – Adding or Replacing I/O Boards

Optima Instruction Manual

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

Tab down

Dual-connector boards require an extra spacer

Tab u p

Line up the edge of the CPU on the board guide and push the CPU/board unit until it snaps into place.

Line up the edge of the CPU between the 2 ridges of the board guide

Lift bottom of board slightly to ease over lower edge of frame

FIG. 31 Insert left & right slide-keys through spacers

Note: The number and placement of spacers varies per enclosure size and configuration. Boards and board slots each require a spacer; dual-connector boards require two spacers. Boards will be parallel when spacers are placed correctly.

FIG. 32 Push CPU/board unit into place

Appendix D – Adding or Replacing I/O Boards

Optima Instruction Manual

5a: Replace the three screws indicated.

5b: Replace the expansion plate (requires two screws).

Expansion plate

Screw will fit into one of these 2 holes

6a: Replace the five screws indicated (four on top and one on the side).

6b: Replace the rack ear (requires four screws).

Screw will fit into one of these 2 holes

FIG. 33 Replace 3 screws & expansion plate (2 screws)

FIG. 34 Replace 5 screws & rack ear (4 screws)

Important: If the slot was previously empty or if the board type has changed, the system’s configuration file must be updated before signals can be routed on the new board (see page 70).

Appendix D – Adding or Replacing I/O Boards

Optima Instruction Manual

AutoPatch Optima signal router Host software: v3.1.0 Appcode: v2.7.9 R Hardware driver: v0.011 R Built on Jan 16 2006 12:31:53 XNet address: 0x0003.

Ready ~def!V

Updating the System Configuration

The configuration file stored in the CPU may or may not need to be updated, depending on the type of board being installed.

 If an input or output board is replaced with the same type of board or if the system was

configured for expansion, the configuration file will not need to be updated.

 If an input or output board is added to a previously empty slot (an upgrade) in a system not

configured for expansion, or if the replacement is a different type of board, the system’s configuration file must be updated before the board will work. If the system requires a new configuration file, the file is provided on a CD and needs to be loaded using XNConnect.

Note: We recommend keeping a copy of the former configuration file for reference.

To update the system configuration (if applicable):

Attach a PC to the Optima’s serial port with an RS-232 null modem cable.

2. Open a terminal emulation program (such as HyperTerminal), and set the port settings to:

baud = 9600, data bits = 8, stop bit = 1, parity = none, and flow control = none.

3. Plug in the enclosure.

A short splash screen appears (FIG. 35)*.

4. Enter ~def!

Wait until a “V” appears (FIG. 35) to verify that the command is successful (this may take a few minutes), then exit the program.

FIG. 35 Short splash screen in HyperTerminal

5. Install XNConnect from the AMX AutoPatch CD sent with the new board. (If XNConnect is already

installed on the PC, we strongly version).

6. Open XNConnect.

7. From the File menu, select Open.

* Your splash screen may differ. AMX reserves the right to change the contents and/or formatting of the splash screen without notice.

recommend uninstalling the old version before installing a new

Appendix D – Adding or Replacing I/O Boards

Optima Instruction Manual

8. Using the standard File Open dialog box, locate and open the XCL (*.xcl) configuration file that

was sent with the new board. The default location is in the C:\AutoPatch\Configuration Software<Version>\MyXCL folder.

9. For XNConnect version 2.4.0 – from the Configure menu, select Configure All.

The system automatically reboots all devices.

For XNConnect versions prior to 2.4.0 – from the Configure menu, select Reboot All Devices.

10. Execute a test switch that includes a signal routed on the new board to ensure the system is working

correctly. (Repeat for any additional new boards.)

If the test switch does not execute correctly, contact technical support (see page 39).

Appendix D – Adding or Replacing I/O Boards

Optima Instruction Manual

Appendix E – Replacing an Optima Power Suppy

Optima Instruction Manual

Appendix E – Replacing an Optima Power Supply

This appendix provides instructions for removing and installing an Optima Distribution Matrix power supply. This process can be done while the enclosure is in a rack. The 3 RU power supply instructions start below. The 2 RU power supply instructions start on page 81.

Note: The figures in this appendix show typical Optima enclosures and power supplies. Your equipment may appear slightly different depending on the enclosure model.

3 RU Enclosures – Removal & Installation

Caution: We recommend 3 inches (7.6 cm) of clearance around the enclosure openings (the system requires at least one empty rack unit above and below). Avoid placing high heat producing equipment directly above or below the enclosure.

Items Required

 Optima 3 RU power supply

 Phillips #1 screwdriver

 ESD wristband and cord with alligator clip

FIG. 36 Optima 3 RU power supply

Caution: Do not remove a failed power supply until you have the replacement and are ready to install it (unless directed to do so by technical support).

Removal Procedure

To remove an Optima 3 RU power supply:

Unplug the AC power cable from the enclosure (for multi-enclosure systems, unplug power from

all enclosures), and wait thirty seconds for the power supply capacitors to discharge before proceeding.

2. Loosen the rack ears from the rack, support the enclosure from below, and slide it forward far

enough to reach the front panel screws.

Appendix E – Replacing an Optima Power Supply

Optima Insturction Manual

Backplane

Front panel power indicator cable

3. Remove the screws (may total 4 or 6 depending on type of panel) on the upper and lower edges of

the front panel (FIG. 37).

FIG. 37 Remove front panel screws

4. Lower the top edge of the front panel being careful not to pull or to put stress on the attached cables.

Support the panel from below (FIG. 38).

FIG. 38 Lower & support front panel

5. Unplug the front panel power indicator cable from the “STBY PWR SWITCH” connector on the

Backplane (the “BACKPLANE” label is above the AutoPatch logo); see FIG. 39.

FIG. 39 Unplug power indicator cable

Appendix E – Replacing an Optima Power Suppy

Optima Instruction Manual

Control panel power connector (CP-20A only)

Interface connectors (one used depends on control panel)

Cut tie strap on wire harnesses

Unplug AC wire harness from power supply

DC power connector

6. Blank front panel – Set aside and go to Step 7.

Control panel – Unplug the control panel cable(s) that are attached to the Backplane (FIG. 40) and

set the control panel aside.

FIG. 40 Unplug control panel cable(s)

Caution: When handling the power supply, be careful to touch only its mounting plate metal.

touch any of the power supply components because the components could still be hot.

Do not

7. If applicable – Carefully cut the tie straps on the enclosure’s cables to loosen the wires

(FIG. 41, left). Unplug the enclosure’s AC wire harness from the AC connector on the power supply (FIG. 41, right). Note that the connector has a locking tab on the right. The AC cable remains attached to the enclosure.

FIG. 41 Cut tie strap & unplug AC wire harness

8. Unplug the DC power connector (located in either “PWR SUPPLY #1” or “PWR SUPPLY #2”

connector) from the Backplane (FIG. 40). Note that the connector has double locking tabs. The DC cable remains attached to the power supply.

FIG. 42 Unplug DC wiring harness

Appendix E – Replacing an Optima Power Supply

Optima Insturction Manual

Fan cable connector

Tabs

Double-bridge guides

9. If the power supply has a separate fan cable, unplug the fan cable connector from the “FAN PWR”

connector on the Backplane (FIG. 43). If power supply’s fan gets power from the DC wiring harness, unplugging the DC harness in Step 8 disconnected the fan.

FIG. 43 Unplug fan cable

10. Remove the single screw at the top of the power supply plate that secures the power supply to the

enclosure and the ground wire to the mounting plate (FIG. 44).

FIG. 44 Remove screw (and ground wire) from bracket

Caution: When removing the power supply, take great care to avoid bumping the power supply into the CPU board on the right or into the I/O boards behind the power supply. Be especially careful that the fan screws do not damage any of the surrounding boards.

11. Carefully slide the power supply to the right until the three tabs on the bottom of the power supply

mount are free of the double-bridge guides (FIG. 45).

FIG. 45 Slide power supply right

12. Carefully lift the power supply just high enough to avoid the bridge guides and slide it as far left as

possible.

13. Slowly pull the left-hand side forward as you pull the power supply out from behind the Backplane.

14. Place the power supply in an ESD approved static shield bag and set aside.

Appendix E – Replacing an Optima Power Suppy

Optima Instruction Manual

Double-bridge guides

Tabs

Installation Procedure

Caution: When installing the power supply, take great care to avoid bumping the power supply into the CPU board on the right or into the I/O boards behind the power supply.

Important: During the installation procedure, make sure all connections are secure.

To install an Optima 3 RU power supply:

Position the replacement power supply inside the enclosure with the right end angled behind the

Backplane as far as possible (FIG. 46). Keep the power supply slightly lifted to avoid the doublebridge guides during this step and the next.

2. Carefully maneuver the power supply into the enclosure behind the backplane (FIG. 46).

FIG. 46 Position replacement power supply & slide behind backplane

3. Rest the power supply flat on the enclosure floor and butt against the angle bracket attached to the

top cover of the enclosure. Line up the two visible tabs on the power supply mount to the right of the double-bridge guides on the floor of the enclosure (FIG. 47).

FIG. 47 Line up tabs with guides

4. Slide the power supply to the left until all three tabs on the power supply mount fit firmly into the

double-bridge guides as far as they will go. The screw hole in the power supply mount must line up with the screw hole in the angle bracket.

Appendix E – Replacing an Optima Power Supply

Optima Insturction Manual

AC connector

“PWR SUPPLY #1” connector

5. Place the ring terminal of the enclosure’s ground wire over the screwhole in the mount. Replace the

single screw at the top of the power supply mount, securing the ground wire to the mount, and the power supply mount to the enclosure.

FIG. 48 Replace ground wire and screw

6. Plug the enclosure’s AC wire harness into the AC connector on the power supply (FIG. 49). Note

that the connector has a locking tab on the right.

FIG. 49 Attach AC wiring harness

7. Plug the power supply’s DC wiring harness into the “PWR SUPPLY #1” connector on the

Backplane (FIG. 50). Note that the connector has double locking tabs.

FIG. 50 Attach DC wiring harness to “PWR SUPPLY #1”

Appendix E – Replacing an Optima Power Suppy

Optima Instruction Manual

Front panel power indicator cable

Neuron interface (CP-20A)

Serial interface (CP-15)

CP POWER (CP-20A)

FAN PWR

8. Blank front panels – Support the panel from below. Plug the power indicator cable into the

“STBY PWR SWITCH” connector on the Backplane (FIG. 51). Go to Step 10.

FIG. 51 Attach power indicator cable to “STBY PWR SWITCH”

Control panels – Support the panel from below. Plug the power indicator cable into the

“STBY PWR SWITCH” connector (FIG. 51).

CP-15 – Plug the interface cable into the 4-pin Serial Interface connector (FIG. 52). CP-20A – Plug the interface cable into the 3-pin Neuron Interface connector, and the power cable

(3-pin with locking tabs) into the “CP POWER” connector (FIG. 52).

FIG. 52 Attach control panel cable(s)

9. If the power supply has a separate fan cable, attach the cable connector to the “FAN PWR”

connector on the Backplane (FIG. 52). Otherwise, plugging in the DC wiring harness in Step 7 will connect the fan to a power source.

Caution: Carefully route the cables to keep them from being pinched under the front panel.

10. Push the front panel back into place, being careful to not strain the cables. Replace and tighten one

screw each on the upper and lower edges of the front panel.

FIG. 53 Push the front panel into place

Appendix E – Replacing an Optima Power Supply

Optima Insturction Manual

11. Apply external AC power to the enclosure.

12. Check the following items:

 The front panel power light is illuminated green.

 The LCD screen is active (control panels only).

If the listed items are all okay, go to Step 13. If one or more of the items is not working, see the Troubleshooting section on page 88.

13. Unplug the AC power cord from the enclosure.

14. Replace and tighten all the remaining screws on the upper and lower edges of the front panel.

15. Push the enclosure back into the rack; replace and tighten the rack ear screws.

16. Plug in the external AC power cord.

Appendix E – Replacing an Optima Power Suppy

Optima Instruction Manual

2 RU Enclosures – Removal & Installation

Caution: We recommend 3 inches (7.6 cm) of clearance around the enclosure openings (the system requires at least one empty rack unit above and below). Avoid placing high heat-producing equipment directly above or below the enclosure.

Items Required

 Optima 2 RU power supply

 Phillips #1 screwdriver

 ESD wristband and cord with alligator clip

FIG. 54 Optima 2 RU power supply

Removal Procedure

To remove an Optima 2 RU power supply:

Unplug the AC power cable from the enclosure (for multi-enclosure systems, unplug power from

all enclosures) and wait thirty seconds for the power supply capacitors to discharge before proceeding.

2. Loosen the rack ears from the rack, support the enclosure from below, and slide it forward far

enough to reach the front panel screws.

3. Remove the six screws on the upper and lower edges of the front panel (FIG. 55).

FIG. 55 Remove front panel screws

Appendix E – Replacing an Optima Power Supply

Optima Insturction Manual

Front panel indicator power cable

Backplane

Control panel cable

4. Lower the top edge of the front panel being careful not to pull or to put stress on the attached cables.

Support the panel from below (FIG. 56).

FIG. 56 Support front panel from below

5. Unplug the front panel power indicator cable from the “STBY PWR SWITCH” connector on the

Backplane (FIG. 57).

FIG. 57 Unplug front panel power indicator cable

6. Blank front panel – Set aside and go to Step 7.

Control panel – Unplug the cable attached to the four pin connector on the Backplane (FIG. 58).

Set the control panel aside.

FIG. 58 Unplug control panel cable

Caution: When handling the power supply, be careful to touch only its mounting plate metal. Do not touch any of the power supply components because the components could still be hot.

Appendix E – Replacing an Optima Power Suppy

Optima Instruction Manual

Power supply AC connector

AC wiring harness

DC cable

Fan cable

7. If applicable – carefully cut the tie straps on the enclosure’s wiring harness to free the power

supply’s cables. Unplug the enclosure’s AC cable from the power supply’s AC connector (FIG. 59). Note that the connector has a locking tab on the left. The other end of the AC cable remains attached to the enclosure.

FIG. 59 Unplug AC connector

8. Unplug the power supply’s DC cable from the Backplane (FIG. 60). Note that the connector has

double locking tabs. The other end of the DC cable remains attached to the power supply.

FIG. 60 Unplug DC connector

9. If the power supply has a separate fan cable, unplug the power supply’s fan cable from the “FAN

PWR” connector on the Backplane (FIG. 61). If the power supply’s fan gets power from the DC wiring harness, unplugging the DC harness in Step 8 disconnected the fan.

FIG. 61 Unplug fan cable

Appendix E – Replacing an Optima Power Supply

Optima Insturction Manual

Double-bridge guides

Ta bs

10. Remove the single screw at the top of the power supply plate that secures the power supply in the

enclosure and the ground wire to the mounting plate (FIG. 62). The other end of the ground wire remains attached to the enclosure.

FIG. 62 Remove screw and ground wire

11. Carefully slide the power supply to the right until the three tabs on the bottom of the power supply

plate are free of the double-bridge guides (FIG. 63).

FIG. 63 Slide power supply to the right until free of tabs

12. Carefully lift the power supply to avoid the bridge guides and slide it as far left as possible.

13. Bring the left-hand side forward as you pull the power supply out from behind the Backplane.

14. Place the power supply in an ESD approved static shield bag and set aside.

Appendix E – Replacing an Optima Power Suppy

Optima Instruction Manual

Fit tabs fully into double-bridge guides

Line up screw holes

Installation Procedure

Caution: When installing the power supply, take great care to avoid bumping the power supply into the CPU board on the right or into the I/O boards behind the power supply.

Important: During the installation procedure, make sure all connections are secure.

To install an Optima 2 RU power supply:

Position the replacement power supply inside the enclosure with the right end angled behind the

Backplane as far as possible. Keep the power supply slightly lifted to avoid the double-bridge guides during this step and the next.

2. Carefully maneuver the power supply into the enclosure until it is completely behind the Backplane

(FIG. 64).

FIG. 64 Maneuver power supply behind board

3. Lower the power supply until the plate is flat on the enclosure floor and rests against the angle

bracket attached to the top cover of the enclosure. Line up the two visible tabs on the power supply mount to the right of the double-bridge guides on the floor of the enclosure.

4. Slide the power supply to the left until all three tabs on the power supply mount fit firmly into the

double-bridge guides as far as they will go (FIG. 65). The screw holes in the power supply plate and the angle bracket must be lined up.

FIG. 65 Slide power supply left until tabs fit into guides

Appendix E – Replacing an Optima Power Supply

Optima Insturction Manual

AC wiring harness

Power supply AC connector

DC wiring harness

5. Place the ring terminal of the enclosure’s ground wire over the screwhole in the mount. Replace the

single screw at the top of the power supply mount, securing the ground wire to the mount and the power supply mount to the enclosure.

FIG. 66 Replace ground wire and screw

6. Plug the enclosure’s AC wire harness into the power supply’s AC connector (FIG. 67). Note that the

connector has a locking tab on the left.

FIG. 67 Attach AC wiring harness

7. Attach the power supply’s DC wiring harness into the connector on the Backplane (FIG. 68). Note

that the connector has double locking tabs.

FIG. 68 Attach DC wiring harness

Appendix E – Replacing an Optima Power Suppy

Optima Instruction Manual

Attach power indicator cable

Attach power/control cable

Fan cable

8. Blank front panels – Support the panel from below. Plug the power indicator cable into the

“STBY PWR SWITCH” connector on the Backplane, and go to Step 9. Control panels – Support the panel from below. Attach the control panel’s power indicator cable into the “STBY PWR SWITCH” connector, and attach the power/control cable into the 4-pin connector on the Backplane.

FIG. 69 Attach panel cables

9. If the power supply has a separate fan cable, attach the power supply’s fan cable connector to the

“FAN PWR” connector on the Backplane (FIG. 52). Otherwise, plugging in the DC wiring harness in Step 7 will connect the fan to a power source.

FIG. 70 Attach fan cable

Caution: Carefully route the cables to keep them from being pinched under the front panel.

10. Push the front panel back into place, being careful to not strain the cables. Replace and tighten one

FIG. 71 Replace front panel

11. Apply external AC power to the enclosure.

screw each on the upper and lower edges of the front panel.

Appendix E – Replacing an Optima Power Supply

Optima Insturction Manual

12. Check the following items:

 The front panel power light is illuminated green.

 The LCD screen is active (control panels only).

If the listed items are all okay, go to Step 13.

If one or more of the items is not working, see the Troubleshooting section below.

13. Unplug the AC power cord from the enclosure.

14. Replace and tighten all the screws on the upper and lower edges of the front panel.

15. Push the enclosure back into the rack; replace and tighten the rack ear screws.

16. Plug in the external AC power cord.

Troubleshooting

If the status of the front panel power light or the LCD screen is not normal, check the following:

 Check the external AC power cord to be sure it is securely connected to both the enclosure and

its source of power.

 Unplug the AC power cord and wait thirty seconds for the power supply capacitors to

discharge. While supporting panel from below, pull the front panel out far enough to see cabling. Check that the front panel cables are secure. (Blank panels and control panels both have a power indicator cable.)

 Check to be sure that the power supply’s AC and DC harnesses, fan cable, and ground wire are

securely attached.

 Push the panel back into place. Reapply power and check the power indicator again. If the

indicator is still not illuminated green, contact technical support (see page 39).

Optima Instruction Manual

Standard Video & Hi-Z Sync Input/Output Boards

Applicability Notice

This chapter pertains to:

 Standard video, Hi-Z sync, and HV Hi-Z sync (with a double-row of 8x8 connectors)

I/O boards listed in the first table below that are ordered individually for custom systems

 Standard video, Hi-Z sync, or HV Hi-Z sync I/O boards listed in the first table below that are

included when ordering numerous pre-configured systems

Signal Configuration Board Sales #

8x8 FG1046-440

16x16 FG1046-485

16x24 FG1046-545

Standard Video

Hi-Z Sync

20x4 FG1046-470

20x20 FG1046-413

24x4 FG1046-515

24x16 FG1046-431

36x4 FG1046-422

8x8 HV FG1046-443

16x16 FG1046-569

16x24 FG1046-566

20x4 FG1046-563

20x20 FG1046-560

24x4 FG1046-557

24x16 FG1046-554

36x4 FG1046-551

Standard Video & Hi-Z Sync Input/Output Boards

 Hi-Z Sync I/O boards contained in the specific pre-configured systems listed in the following

table

Signal(s) Configuration System Sales #

RGBHV 16x16 FGP46-1616-560

RGBHV+Stereo 16x16 FGP46-1616-567

RGBHV 8x16 FGP46-0816-560

RGBHV+Stereo 8x16 FGP46-0816-567

RGBHV 12x12 FGP46-1212-560

RGBHV+Stereo 12x12 FGP46-1212-567

RGBHV 16x8 FGP46-1608-560

RGBHV+Stereo 16x8 FGP46-1608-567

Note: Wideband (300 MHz) systems use Hi-Z Sync or

HV Hi-Z Sync boards to route horizontal and vertical sync signals. 500 MHz video systems use Hi-Z Sync boards to route horizontal and vertical sync signals.

Standard Video & Hi-Z Sync Input/Output Boards

Optima Instruction Manual

Signals may only be routed from the inputs on a board to the outputs on the same board because each board has its own switching matrix.

FIG. 72

Standard video input/output boards (with a stereo audio board)

Standard Video Input/Output Boards Specifications

Applies to I/O boards FG1046-413, FG1046-422, FG1046-431, FG1046-440, FG1046-470, FG1046-485, FG1046-515, and FG1046-545.

Also applies to standard video boards contained in pre-configured systems (see previous page).

Specifications

Parameter Conditions Value

Frequency Response 1 to All ±3 dB to 50 MHz or better

Crosstalk (adjacent channel) f = 5 MHz <-60 dB

Differential Gain* f = 3.58 MHz <0.2% or better

Differential Phase* f = 3.58 MHz <0.2º or better

Signal to Noise Ratio (SNR) Vin = 0.7 V, 100 IRE >65 dB

Input Level (max.) ±2.5 V

Input Impedance 75 ohms

Output Level (max.) ±2.5 V

Output Impedance 75 ohms

Connector Type BNC

* Differential gain and phase measurements are performed with a standard 5-step modulated staircase test signal.

±1 dB to 15 MHz or better

Standard Video & Hi-Z Sync Input/Output Boards

Optima Instruction Manual

Hi-Z & HV Hi-Z Sync Input/Output Boards Specifications

Applies to I/O boards FG1046-443(HV Hi-Z Sync), FG1046-551, FG1046-554, FG1046-557, FG1046-560, FG1046-563, FG1046-566, and FG1046-569.

Also applies to Hi-Z and HV Hi-Z sync boards contained in pre-configured systems (see page 89).

Specifications

Parameter Conditions Value

Input Level (max.) +5.5 V

Input Impedance 22 kohms

Output Level (max.) +5.5 V

Output Impedance 75 ohms

In/Out Polarity Active high or low Output polarity follows input polarity

Output Signal Level Unity gain

Connector Type BNC

AMX reserves the right to modify its products and their specifications without notice.

Attaching Cables

When attaching video input and output cables, refer to the sheet labeled “AutoPatch Optima Connector Guide” that shipped 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 multi-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).

The input connectors (white BNCs) are on the left side of each board, and the output connectors (black BNCs) are on the right side. Input and output connectors are numbered separately. The number of BNC connectors depends on the I/O configuration. The enclosure may also contain I/O boards for additional signal types.

To connect video inputs and outputs:

Fasten the cables onto the input and output BNC connectors (see FIG. 73).

Fasten cables onto input and output BNC connectors

FIG. 73

Make sure the video cable is connected to the correct BNC connector on the correct enclosure. Standard video, Hi-Z Sync, and HV Hi-Z Sync boards look similar to wideband (300 MHz) and 500 MHz video boards, but the “AutoPatch Optima Connector Guide” identifies them.

Note: For instructions on installing or replacing a Standard Video or sync board, see “Appendix D – Adding or Replacing I/O Boards” on page 63.

Standard Video & Hi-Z Sync Input/Output Boards

Optima Instruction Manual

S-Video Input/Output Boards

Applicability Notice

This chapter pertains to the following Optima S-Video I/O boards with S-Video connectors that accept standard or AMX AutoPatch locking S-Video cables (these boards are used in pre-configured systems or can be ordered individually for custom systems):

Configuration Board Sales #

8x8 FG1046-446

16x16 FG1046-488

Signals may only be routed from the inputs on a board to the outputs on the same board because each board has its own switching matrix.

S-Video Input/Output Boards

Optima S-Video I/O boards (shown with a stereo audio board and a Y/c board)

FIG. 74

S-Video Input/Output Boards Specifications

Applies to I/O boards FG1046-446, FG1046-488.

Also applies to S-Video boards contained in pre-configured systems.

Specifications

Parameter Conditions Value

Frequency Response 1 to All ±3 dB to 50 MHz

±1 dB to 15 MHz

Crosstalk f = 5 MHz <-60 dB

Signal to Noise Ratio (SNR) Vin = 0.7 V, 100 IRE >65 dB

Input level (max.) ±2.5 V

Input Impedance 75 ohms

Output level (max.) ±2.5 V

Output impedance 75 ohms

Connector Type S-Video / Locking S-Video

AMX reserves the right to modify its products and their specifications without notice.

AMX AVS-OP-3604-110, AVS-OP-1624-110, AVS-OP-2416-110, AVS-OP-2004-110, AVS-OP-2020-110 Instruction Manual

Specifications and Main Features

Frequently Asked Questions

User Manual