Page 1
Trinix DIGITAL VIDEO ROUTER Planning and Installation Manual SOFTWARE VERSION 2.4.1 071827607 August 4, 2007...
Page 2
Affiliate with the N.V. KEMA in The Netherlands CERTIFICATE Certificate Number: 510040.001 The Quality System of: Grass Valley, Inc. 400 Providence Mine Road 15655 SW Greystone Ct. 10 Presidential Way Nevada City, CA 95945 Beaverton, OR 97006 Floor, Suite 300...
Page 3
Trinix DIGITAL VIDEO ROUTER Planning and Installation Manual SOFTWARE VERSION 2.4.1 071827607 August 4, 2007...
This manual provides system planning, installation and troubleshooting information specific to the Trinix Digital Video Router. The Trinix Digital Video Router can be controlled by the Grass Valley Jupiter or Encore Control System. Configuration information for the control system itself is contained in the control system’s documentation set: Jupiter Control System Release Notes series, 0718275xx.
Page 10
Preface Planning and Installation Manual...
Safety Summary Read and follow the important safety information below, noting especially those instructions related to risk of fire, electric shock or injury to persons. Additional specific warnings not listed here may be found throughout the manual. WARNING Any instructions in this manual that require opening the equipment cover or enclosure are for use by qualified service personnel only.
Safety Summary Symbols on the Product The following symbols may appear on the product: Indicates that dangerous high voltage is present within the equipment enclosure that may be of sufficient magnitude to constitute a risk of electric shock. Indicates that user, operator or service technician should refer to product manual(s) for important operating, maintenance, or service instructions.
Safety Summary — Use only the power cord supplied or specified for Use proper power cord this product. — Connect the grounding conductor of the power cord to Ground product earth ground. — Do not operate this Operate only with covers and enclosure panels in place product when covers or enclosure panels are removed.
Page 14
Safety Summary — If you suspect product Do not operate with suspected equipment failure damage or equipment failure, have the equipment inspected by qualified service personnel. — If mains switch is not provided, the power cord(s) Ensure mains disconnect of this equipment provide the means of disconnection. The socket outlet must be installed near the equipment and must be easily accessible.
Changes or modifications not expressly approved by Grass Valley Group can affect emission compliance and could void the user’s authority to operate this equipment.
Regulatory Notices Canadian Certified Power Cords Canadian approval includes the products and power cords appropriate for use in the North America power network. All other power cords supplied are approved for the country of use. Canadian Certified AC Adapter Canadian approval includes the AC adapters appropriate for use in the North America power network.
Regulatory Notices FCC Emission Limits This device complies with Part 15 of the FCC Rules. Operation is subject to the following two conditions: (1) This device may no cause harmful inter- ference, and (2) this device must accept any interference received, including interference that may cause undesirable operation.
Page 18
Regulatory Notices Planning and Installation Manual...
Section Introduction General The Trinix family of routing switchers represents a revolutionary new approach to digital signal distribution that builds on the success of Venus—the best selling routing switcher ever. Trinix is a high-quality and fully featured digital video routing switcher offering a large number of crosspoints in one of the smallest physical frames available.
Introduction SD and HD in the Same Frame Trinix supports both SD and HD video in all configurations. The matrix cards and high-speed backplane are designed for both SD and HD sig- nals. The only difference between SD and HD implementations is the I/ O cards.
Trinix Architecture The architecture of the Trinix signal flow is organized into three cards: input card, matrix card, and output card. These are connected to a passive backplane circuit card. Each input and output card accommo- dates 32 signals, which allows the routers to be built in increments of 32 as well a mixed population of SD and HD cards in increments of 32.
For more information, see Broadlinx / Internet Explorer Monitoring on page 166. SNMP/NetCentral Monitoring When enabled, the Trinix SNMP (Simple Network Management Pro- tocol) Agent allows the Grass Valley NetCentral application to monitor the following: Table 1. Item Description...
Page 24
The Trinix SNMP Agent provides support for NetCentral, but does not include the actual NetCentral product, which is available separately. Once the Trinix SNMP Agent is installed and configured, it can be mon- itored by NetCentral, or by any other SNMP management application.
Page 25
Non-NetCentral Managers For information concerning registration of Monitoring Stations (SNMP Managers) for use with non-NetCentral SMNP management applica- tions, please refer to Appendix A-SNMP Managers. Planning and Installation Manual...
Page 26
Introduction Planning and Installation Manual...
Trinix Digital Video Routing Switcher. Included in this document are the details necessary for the planning and designing of your facility with the Trinix router in mind. The beginning of this section includes conceptual descriptions and drawings for those who need a basic understanding of the product and the configuration options.
Page 28
Planning Guide Figure 1. DV-33128 front view (door removed). Power supplies FAN ALARM Fan modules FAN ALARM SR-33000 Sync Reference / NR-33000 Broadlinx Board slots Input/output boards Matrix board (configuration varies) Planning and Installation Manual...
Page 30
Planning Guide Figure 3. DV-33256 front view (door removed). SR-33000 Sync Reference / NR-33000 Broadlinx Board Fan modules Power supplies slots VADJ OK VADJ Matrix boards Input/output boards (configuration varies) Planning and Installation Manual...
Page 31
Trinix Frame Figure 4. DV-33256 rear panel SECONDARY PRIMARY NIC B NIC A COM BUS COM BUS CONSOLE CONSOLE page 29 for detail PS B PS A CROSSPOINT BUS LEVEL CONTROL GPIO/TC SUPER IN EXPAND 96 112 OP EXPAND VIT REDUNDANT...
Page 32
Planning Guide Figure 5. DV-33512 main chassis and associated power supply unit. SR-33000 Sync Reference / NR-33000 Broadlinx Board Power supply unit may be slots mounted above or below main chassis PS A PS C PRIMARY SECONDARY PS B PS D Fan modules FAN A FAN B...
Page 33
Trinix Frame Figure 6. DV-33512 main chassis and power supply chassis. PS IFC FAN IFC XPT BUS DC INPUT 2 NOT FUSED 42 - 54 VDC 30 - 24 AMPS DC IN + DC IN - RP-33500 board. See page 29...
Page 34
Planning Guide Figure 7. Signal flow and power supply system for DV-33512 router. Powered by Powered by PS C and PS D PS A and PS B Input/Output boards DM-33501/2 Matrix boards Input/Output boards Primary Supplies PS A PS C PS B PS D Planning and Installation Manual...
Trinix Frame Power Supplies Two power supply types are used in the Trinix routing family, one type for the 128 chassis and another for the 256 and 512 chassis. Both types, which share the same feature set, are OEM products. The power sup- plies differ primarily in power delivered, size, and weight.
Planning Guide Cooling System The Trinix uses fan modules (FM-33000) for cooling the main chamber of the chassis. A fan module consists of two blower-type fans that are housed in a mechanical assembly. The 128 x 128 chassis uses two mod- ules, the 256 x 256 chassis uses three, and the 512 uses six.
Page 37
Trinix Frame Airflow openings for the 256 and 512 chassis are shown in Figure 9 Figure 10. Air is taken in from the bottom of the chassis (cut-outs are located on the very bottom of the sides), and from the central area of the left and right sides.
For synchronous vertical interval switching the same sync reference signal must be sent to the control system (e.g., Jupiter CM-4000) and to the Trinix. (The Trinix will operate without a sync connection but switching will be non-synchronous.) Each sync input uses looping 75 ohm BNC connectors.
59). Signal Flow Trinix is a “three-board” routing system, where the input board, output board, and matrix board are the basic modules. Shown below is the signal flow through a 128 x 128 routing system. Inputs are received and outputs are delivered to the rear of the chassis directly with a connection to the rear panels (no cabling).
M x N (P x Q) This indicates that the functional router size is M x N and is pre-wired to (P x Q). For Trinix pre-wiring is only possible in multiples of 128 x 128, as that is the smallest chassis size increment.
Trinix Frame Alarm System There are two Trinix alarm classes: primary and secondary. A sec- ondary alarm is asserted when a single fan has failed or when the sec- ondary NR/SR Broadlinx board has taken control of the system. All other alarms (multiple fan failure, power supply failure, etc.) are con-...
Page 42
Planning Guide Figure 12. Rear panel master alarm circuit (left) and example of customer-supplied indicator circuit (right) EXTERNAL CIRCUIT (EXAMPLE) REAR PANEL BNC NOT TO EXCEED 24 VDC @ 20 mA All of the alarm and status information is also gathered by the Broad- linx technology to make it available to the user via web pages.
Duplication and Expansion Duplication and Expansion Trinix routers are designed to duplicate/expand inputs and outputs using passive splitter/combiner expansion panels. Note For Jupiter-controlled (0-based) systems, the input/output numbers in the following discussion should be decreased by one (1). For example, block 1-256 should be understood as block 0-255, etc.
Page 44
Planning Guide Figure 14. PE-33016 used to provide 16 dual outputs. (Terminated) Interior side Exterior side In the splitting application, the PE-33016 Port Expander can be used to provide dual outputs in groups of 16 outputs. All outputs are non- inverting.
Page 45
Frame 0 Dual outputs splitter 1 - 256 Trinix 17 - 256 256 x 256 Single outputs In this application, 16 of the PE-33016 rear BNCs can be used for inputs (outputs from the router) and all 32 of the front BNCs can be used for outputs.
Page 46
Planning Guide Figure 16. Use of single PE-33016 to provide dual outputs for 16 switcher outputs PE-33016-1 PE-33016-1 Exterior Interior Dual outputs 390-1796-00 390-1797-00 These 16 cables connect to rear of PE Planning and Installation Manual...
Page 47
Duplication and Expansion Figure 17. PE-33016 Port Expanders used to provide 256 dual outputs for 256 input switcher. A B C EXTERIOR 16 PE-30016 Expander Modules in MK-33000 Mounting Kit INTERIOR 3.25 in. (82 mm) Planning and Installation Manual...
Planning Guide Output Duplication - Quad The PE-33008 Port Expander can be used to provide quad outputs in groups of 16 outputs. All outputs are non-inverting. A 128 x 128 switcher could be arranged as follows: 128 inputs x 112 single outputs and 16 quad outputs - uses 2 PE-33008s 128 inputs x 96 single outputs and 32 quad outputs - uses 4 PE-33008s 128 inputs x 80 single outputs and 48 dual outputs - uses 6 PE-33008s...
Page 49
Duplication and Expansion Figure 18 shows a 128 input router with two PE-33008s mounted in an MK-33000; this provides 112 single outputs and 16 quad outputs. A 256 input router with 128 single outputs and 128 quad outputs would appear similar to the system shown in Figure 17;...
Planning Guide Expanded Systems The PE-33016 and PE-33008 Port Expanders can be used to “combine” outputs for an input expansion application. In Figure 19 Figure a PE-33016 is downstream of the router. The router will present only one of the two possible signals to each combiner, which will produce two copies of that signal.
Page 51
Duplication and Expansion Figure 20. Examples of input and output expansion. Frame 0 1 - 512 1 - 512 Trinix 512 x 512 Inputs expanded to 1024 1 - 512 PE 33016 used as Dual outputs combiners Frame 1 513 - 1024...
Page 52
Planning Guide Figure 21. 1024 x 1024 system. Frame 0 1 - 512 Trinix 1 - 512 512 x 512 1 - 512 PE-33016 used as combiners 1 - 512 Dual outputs 513 - 1024 PE-33016 used as splitters Frame 2...
Page 53
Duplication and Expansion Figure 22. 1024 x 2048 system. Frame 0 1 - 512 1 - 512 PE-33016 used as Dual outputs combiners Trinix 512 x 512 Frame 2 1 - 512 Trinix Outputs expanded to 2048 512 x 512 Inputs PE-33008...
Page 54
Planning Guide Figure 23. 2048 x 1024 system. Frame 0 1 - 512 Trinix 512 x 512 Inputs PE-33016 used as 1 - 512 splitters Outputs expanded to 1024 Frame 2 1 - 512 Trinix 512 x 512 Inputs expanded to 2048...
Page 55
Duplication and Expansion Figure 24. 2048 x 2048 system. Frame 0 1 - 512 PE-33008 Trinix 1 - 512 used as 512 x 512 Dual outputs 4 x 1 combiners Inputs and outputs expanded to 2048 Frame 2 1 - 512...
For example, Figure 26 shows a 512 x 512 system expandable to 1024 x 512: Figure 26. Frame 0 1 - 512 1 - 512 Trinix 512 x 512 outputs PE 33016 used as 1 - 512 combiners Frame 1...
Page 57
Output 1B - not used. Termination provided by Termination provided by LD-33000 75 ohm BNC terminator in upstream Trinix frame. In this example: • Only Input 1A and Output 1A are presently functional. • Following the rule that unused connectors should be terminated, Output 1B is fitted with a 75 ohm BNC terminator.
Page 58
For example, Figure 28 shows a 512 x 512 system expandable to 512 x 1024: Figure 28. Frame 0 1 - 512 1 - 512 Trinix 512 x 512 PE 33016 1 - 512 used as splitters Frame 1 (unused)
Output monitoring is not available for input-expanded systems con- trolled by an SR-33000 Sync/OPM board. Figure 30. Monitoring with output-expanded system. Frame 0 1 - 256 1 - 256 Trinix 256 x 256 PE-33016s 1 - 256 used as Output monitor video...
If an upstream splitter is used, steps must be taken to boost the gain for the appropriate block of inputs (as described in the Trinix manual).
Page 61
Protected Paths Figure 32 shows an example of a DV-33512 router with a pair of pro- tected paths.(Depending on system requirements, the upstream splitter may or may not be needed.) The signal detector monitors the primary path and if necessary will disable the primary path output driver and enable the secondary path output driver.
Planning Guide Planning Note The following discussion is based on a “1-based” numbering scheme. If you are using a “zero-based” numbering system, subtract “1” from all instances of input/output numbers. DV-33512 The recommended protected path ranges for DV-33512 routers are as follows: Table 2.
Page 63
Protected Paths A more detailed example is shown in Table 4. This table shows a sequential wiring scheme for a system yet to be installed or a system where cables will be re-arranged in a symmetrical pattern in order to simplify protected path configuration.
Page 64
Planning Guide DV-33256 Recommended protected path ranges for DV-33256 routers are as fol- lows: Table 6. Primary path Secondary path 1-128 1-128 129-256 129-256 For example, to protect an output in the range 1-128, choose a corre- sponding input in the range 1-128; this will be the primary path. For the secondary (failover) path, choose an output in the range 129-256 and a corresponding input in the range 129-256.
Page 65
Protected Paths The numbers shown here correspond to the connector numbers used during router configuration (but not, in most cases, to the actual silk screen number on the rear panel itself since the silk screen numbers only run from “1” to “32.”) In Jupiter-controlled systems, the “Name”...
Page 66
Planning Guide The next example applies to existing systems where re-arrangement of cables in a sequential pattern is not practical or desirable: Table 8. DV-33256 protected paths (example of non-sequential numbering) Primary path Secondary path Name Name Name Name AirPP MCPP AirSP MCSP...
Page 67
Protected Paths DV-33128 Recommended protected path ranges for DV-33128 routers are as fol- lows: Table 9. Primary path Secondary path 1-32 1-32 33-128 33-128 1-32, 1-32, 33-64 33-64 65-128 65-128 1-64, 1-64, 65-96 65-96 97-128 97-128 97-128 97-128 1-96 1-96 For example, to protect an output in the range 1-32, choose a corre- sponding input in the range 1-32;...
Page 68
Planning Guide The numbers shown here correspond to the connector numbers used during router configuration (but not, in most cases, to the actual silk screen number on the rear panel itself since the silk screen numbers only run from “1” to “32.”) In Jupiter-controlled systems, the “Name”...
Protected Paths Worksheet for Protected Path Implementation Based on the preceding examples, specific primary and secondary paths should be identified and noted. The following worksheet is pro- vided for this purpose. Table 12. Protected paths worksheet Primary path Secondary path Output Input Output...
Planning Guide Control Systems Jupiter Facility Control System The Jupiter control system can be used to operate the Trinix router using a VM-3000 or CM-4000 System Controller (Figure 34). The VM/ CM can receive switching commands from a variety of serial sources, including Jupiter control panels or an automation computer.
Page 71
The CB-3000 is described in detail in the Jupiter Installation and Oper- ating manual. In Trinix applications, the crosspoint bus must be terminated at the point farthest from the control processor using a Crosspoint Bus Termi- nator, part number 01-053050-001.
Planning Guide SMS 7000 / Encore Control These control systems use an Ethernet connection to the Broadlinx application, which runs on the NR-33000 Sync/NIC/OPM board. The system is operated in the “internal crosspoint bus control” mode, during which the Broadlinx board sends commands to the crosspoint bus.
“NIC B” jack to the network switch. If the Trinix LAN is connected to the Internet the connection should be made through a firewall. Compliance with EEC, EMC, EN series, UL- 1950, and CSA C22.2 No. 950-M89 standards requires use of a shielded cable.
Page 74
If you plan on using a secondary NR-33000 board another Ethernet cable must be connected from the “NIC B” jack to the network switch. If the Trinix LAN is connected to the Internet the connection should be made through a firewall. Planning and Installation Manual...
Page 75
Broadlinx or SNMP monitoring. Figure 37 shows the recommended connections when the system is equipped with redundant NR-33000 boards and redundant Encore controllers. Figure 37. Encore connections to Trinix Ethernet switch Primary Encore controller Secondary Encore controller Ethernet switch Ethernet switch...
SNMP. The Com Bus uses a 10/100BaseT (Cat 5 twisted pair) cable with RJ-45 connectors. Shielded cable is recommended, maximum length 60 meters. Maximum length for unshielded cable is 100 meters. Figure 38. Trinix frames with SR-33000 Sync/OPM or SR-33500 Trinix frame...
System Monitoring Applications System Monitoring Applications For a detailed description of Broadlinx web page monitoring using Internet Explorer, see Broadlinx / Internet Explorer Monitoring on page 166. For a brief description of system monitoring using SNMP/NetCentral, SNMP/NetCentral Monitoring on page Planning and Installation Manual...
Matrix cards: DM-33100: 128 inputs x 128 outputs. DM-33512: 256 inputs x 256 outputs. For additional information about the various input, output, and matrix cards available for Trinix, see page Video Inputs Level: 800 mV p-p (+/-10%) 75 ohm terminating Return loss: HD: >/=15 dB from 5 MHz to 1.5 GHz...
Page 79
Specifications HI-33110 Input Card (SD/HD): automatic up to 100 meters of Belden 1694A or equivalent coax cable. VI-33100 Input Card (SD/HD): For digital SD operation, automatic up to 300 meters of Belden 1694A or equivalent coax cable. For HD operation, automatic up to 100 meters of Belden 1694A or equivalent coax cable.
Planning Guide 256 x 256 frame: 26 A/supply (full redundancy). 512 x 512 frame: approx. 26 A/supply (full redundancy). Current sharing: Yes, maximum 20% differential unbalance Ripple/noise: <200 mVp-p DC Power Input Input voltage range 42-54 VDC Operating current 128 x 128 frame: approx. 9.5 A @ 48 VDC. 256 x 256 frame: approx.
Ordering Information Ordering Information Trinix routing systems are ordered as a base frame; a set of input, output, and matrix boards; and options. Frames TRX-DV-33128 128 x 277P MAESTRO.xls128 Frame with 1 PS, 1 Broadlinx, 2 Fan Mod- ules. 8 RU TRX-DV-33256 256 x 256 Frame with 1 PS, 1 Broadlinx, 3 Fan Modules.
Page 84
32 inputs. Each board auto-senses and accepts 16 digital SD or digital HD signals in any combination and passes them in digital SD or digital HD form (as appropriate) to the Trinix matrix board. The TRX-HI-33200 is similar to the TRX-VI-33100 but is not fully stuffed.
Ordering Information multi-chassis routers as well as dual or quad outputs. A switch is included to select one of four synchronizing inputs. A list of data rates supported by the HO-33120 Output Board is shown on page Protected path operation requires HO-33120 Output Modules in the paths to be protected.
Although a DV-33512 chassis may include SR-33000 and NR-33000 boards (each with two sync inputs), and an SR-33500 board (with four sync inputs), the maximum number of usable sync inputs for any Trinix chassis remains four. Planning and Installation Manual...
Using this as an output splitter makes quad outputs for eight outputs at a time. Installs in MK-3000 Mounting Kit. All unused connectors must be terminated with 75 ohm BNC terminators (not sup- plied by Grass Valley). TRX-MK-33000 The MK-33000 Mounting Kit, which accommodates up to 16 port expander modules, is eight rack units high and approximately 4 inches deep.
Summary of Installation Procedure The following is a summary of the steps needed for installation of the Trinix Routing Switcher System. Additional details may be found else- where in this manual as indicated. 1. Before unpacking the equipment, inspect the shipping carton for evidence of freight damage.
Page 92
Installation 3. Power supplies are factory-installed and auto-sensing. No field adjustment should be necessary. Power supplies for 512 x 512 (DV-33512) switchers are mounted in a separate chassis and require cabling (supplied) from the “DC Output” connector of the power supply chassis to the “DC Input” connector of the switcher chassis.
Page 93
8. Connect the desired input and output video cables. To permit proper vertical interval switching, the inputs must be aligned within plus/minus 1/4 line with respect to the reference signal. The use of 75 ohm BNC connectors (rather than 50 ohm) is recom- mended for HDTV applications.
Page 94
Installation mary Ref IN 1” connector on the rear panel. If additional references are used, DIP switches are set to assign each board to one of four possible sync lines. See page 123. 14. If output monitoring is required, refer to the installation instructions starting on page 137.
Page 95
Note The front door should be closed during normal operation. Although the Trinix switcher will function properly with the door open, leaving the chassis open on a consistent basis will result in shortened product life. Planning and Installation Manual...
Page 96
Installation Figure 39. Installation of rack spacers (when needed). INSTALL RACK SPACERS ONLY WHEN MOUNTING HOLES ARE RECESSED MORE THAN 0.6 INCH (15.2 MM) FROM FRONT SURFACE OF RACK (DIMENSION ). SPACERS WILL POSITION SWITCHER CHASSIS SO THAT ACCESS DOOR CAN BE OPENED FAR ENOUGH TO PERMIT REMOVAL OF RIGHT-HAND COMPONENTS.
Page 97
Summary of Installation Procedure Figure 40. DV-33128 front view (door removed). Power supplies FAN ALARM Fan modules FAN ALARM SR-33000 Sync Reference / NR-33000 Broadlinx Board slots Input/output boards Matrix board (configuration varies) Planning and Installation Manual...
Page 99
Summary of Installation Procedure Figure 43. DV-33256 front view (door removed). SR-33000 Sync Reference / NR-33000 Broadlinx Board Fan modules Power supplies slots VADJ OK VADJ Matrix boards Input/output boards (configuration varies) Planning and Installation Manual...
Page 100
Installation Figure 44. DV-33256 rear panel SECONDARY PRIMARY NIC B NIC A COM BUS COM BUS CONSOLE CONSOLE page 98 for detail PS B PS A CROSSPOINT BUS LEVEL CONTROL GPIO/TC IN EXPAND SUPER 96 112 OP EXPAND VIT REDUNDANT INT XPT CNTL 60Hz ENABLE ULTRA...
Page 101
Summary of Installation Procedure Figure 45. DV-33512 main chassis and associated power supply unit Fan modules FAN A FAN B FAN C FAN D FAN E FAN F POWER ALARM IFC Input/output boards (configuration varies) INPUTS INPUTS INPUTS INPUTS OUTPUTS OUTPUTS OUTPUTS OUTPUTS...
Page 102
Installation Figure 46. DV-33512 main chassis and power supply chassis connections. To Fan IFC connector To additional frames (or terminate) RP-33500 board is accessed by removing this panel PS IFC FAN IFC XPT BUS SR-33500 DC INPUT 2 NOT FUSED 42 - 54 VDC 30 - 24 AMPS DC IN +...
(i.e., an NR-33000 Sync/NIC/OPM board). This setting is used when the NR is in turn being controlled through a LAN connec- tion to a control system such as a Grass Valley Series 7000 Signal Man- agement System or Encore.
Power supply specifications are shown on page Ventilation is critical for Trinix power supplies, which should not be run with the fan not working. (If the supply begins to overheat it will shut itself off automatically to prevent damage.) The use of redundant power supplies is highly recommended.
Input 1 and DC Input 2 connectors of the main chassis. Note For DC applications fusing must be provided externally, in accordance with local electrical regulations. DC input specifications and character- istics for the Trinix are shown on page An illustration of the power connectors is shown on page 102.
Page 106
Installation Simultaneous AC and DC Applications It is possible to connect both AC and DC power sources as part of a system redundancy scheme. In this case, refer to the AC and DC notes above. RP-33500 jumper JN1 should be set to “AC.” Table 16.
Sync Reference Connections For synchronous vertical interval switching the same sync reference signal must be sent to the control system and to the Trinix. (Trinix will operate without a sync connection but switching will be non-synchro- nous.) For SMS 7000 and Encore systems, sync must be connected to the Sync 1 input.
Page 108
Installation DV-33128 / DV-33256 with Single Sync Reference Figure 47. SMS MCPU Sync Encore SCB Sync 1 Jupiter Sync 1 Sync Redundant switch = Off Primary NR-33000 All output boards Sync Line Planning and Installation Manual...
Page 109
SL2 Sync Lines Two independent sync signals can be connected to the Trinix. They may be different standards (e.g. SD and HD) or different phases of the same standard (e.g. NTSC and delayed NTSC). For example, SD sync could be used for one set of 32 outputs and HD sync for another set of 32 out- puts.
Page 110
Installation DV-33128 / DV-33256 with Multi Sync References Figure 49. SMS MCPU Sync Encore SCB Sync 1 Jupiter Sync 1 Sync Redundant switch = Off Sync 2 Sync 3 Sync 4 Primary NR-33000 Secondary NR-33000 Output board(s) on SL1 Output board(s) on SL2 Output...
Page 111
Sync Reference Connections DV-33128 / DV-33256 with Sync Redundant NR Operation Figure 50. SMS MCPU Sync Encore SCB Sync 1 Jupiter Sync 1 Sync Redundant switch = On Sync 2 Primary NR-33000 Secondary NR-33000 Output board(s) on SL1 Output board(s) on SL2 Sync Lines For NR-33000 redundant operation, one (or two maximum) sync refer-...
Page 112
For a discussion concerning which of the four sync references should be connected to the control system, see Sync Connection to Control System on page 109. The “C” switch mentioned here and on the following drawings in on the Trinix rear panel. Planning and Installation Manual...
Page 113
Sync Reference Connections DV-33512 with Single Sync Reference and Single/Dual NR-33000 Figure 52. SMS MCPU Sync Encore SCB Sync 1 SR-33500 Sync Redundant switch = Off Jupiter “C” switch = Off Sync 1 1 Primary NR-33000 Some DV-33512 power supply units are not labelled correctly.
Page 114
Installation DV-33512 with Dual Sync References and Single/Dual NR-33000 Figure 53. SMS MCPU Sync Encore SCB Sync 1 SR-33500 Sync Redundant switch = Off Jupiter “C” switch = Off Sync 1 Sync 2 1 Primary NR-33000 Note Secondary NR-33000 Some DV-33512 power supply units are not labelled correctly.
Page 115
Sync Reference Connections DV-33512 with Dual Sync References and Redundant NR Operation Figure 54. SMS MCPU Sync Encore SCB Sync 1 SR-33500 Sync Redundant switch = On Jupiter “C” switch = On Sync 1 Sync 2 1 Primary NR-33000 Secondary NR-33000 Output board(s) on SL1...
Page 116
Installation DV-33512 with Multi Sync References and Dual NR-33000 Figure 55. SMS MCPU Sync Encore SCB Sync 1 SR-33500 Sync Redundant switch = Off Jupiter “C” switch = Off Sync 1 Sync 2 Sync 3 1 Primary NR-33000 Sync 4 Secondary NR-33000 Output board(s)
NR/SR-33000 / SR-33500 V-Phasing NR/SR-33000 / SR-33500 V-Phasing A V-phasing feature, available with the NR-33000, SR-33000 with Rev B FPGA Software Update, and SR-33500 allows the user to adjust the switch point from -1 line to +2.5 lines relative to the nominal switch point for the video standard being used.
Page 118
Installation +2.0 line +2.5 line Table 19 shows the switches providing adjustment relative to SR-33500 Reference 3. Table 19. Switch point shift for signals referenced to Ref 3 Switch point relative to Ref. SR-33500: S102-1 SR-33500: S102-2 SR-33500: S102-3 -1.0 line -0.5 line Coincident (default) +0.5 line...
Page 119
NR/SR-33000 / SR-33500 V-Phasing Figure 56. NR-33000 NIC/Sync/OPM board AC and dual power systems DC and single power systems Power Input Select Jumper JN2 For more information, page 104. SMPTE Alarm Jumper JN1 Report SALARM Supress SALARM For more information, Step 18 page Location of...
Page 120
Installation Figure 57. SR-33000 Sync/OPM reference card Monitor expansion jumpers JN3 and JN4. See page 144. DC and single power supply systems: set JN2 to “DC.” AC and Dual power supply sys- tems: set JN2 to “AC.” For more information, see page 104.
Page 121
NR/SR-33000 / SR-33500 V-Phasing Figure 58. SR-33500 Sync/OPM reference card Switches S101 and S102. See page 117 page 142. DIP switches S103, S104, and S610 are reserved for future use. The default setting for these switches is “Open.” Planning and Installation Manual...
Page 122
Installation Figure 59. RP-33500 512 x 512 Rear Panel board DC and single power supply systems: set JN1 to “DC.” AC and Dual power supply sys- tems: set to “AC.” For more information, see page 104. For the location of this board, see page 102.
Output Board Configuration Output Board Configuration This adjustment applies to systems with more that one sync reference. Each output board provides a block of 32 outputs and by factory default each block is assigned to sync reference 1. If additional references are used, DIP switch S5 on each output board is used to assign the board to one of four possible sync lines.
As described in the Planning section of this manual (starting on page 43), Trinix routers are designed to duplicate/expand inputs and outputs using passive splitter/combiner expansion panels. Whenever an expansion panel is connected, signal gain must be increased to com- pensate for the added circuitry.
Page 125
1 - 16 PE 33016 used as Frame 0 Dual outputs splitter 1 - 256 Trinix 17 - 256 256 x 256 Single outputs In this example: • For SO-33110/33011 and HO-33110/33011 output boards, the gain for outputs 1-16 would be boosted by closing the rear-panel Input Expand DIP switch and verifying that the on-board jumper for that set of outputs is in the “Expand...
Frame 0 would be combined with Output 1 of Frame 1, Output 2 of Frame 0 would be combined with Output 2 of Frame 1, etc. Figure 63. Frame 0 1 - 512 1 - 512 Trinix 512 x 512 Inputs expanded to 1024 1 - 512 PE 33016...
Page 127
Outputs 1-16 of Frame 0 are not combined (and therefore are restricted to inputs 1-512). Figure 64. 1 - 16 Frame 0 1 - 512 17 - 512 Trinix 512 x 512 Inputs expanded to 1024 (restricted) 17 - 512 PE 33016 used as...
Page 128
Installation Figure 65. Location of gain jumpers on SO-33110/33011 and HO-33110/33011 output boards. SO-33011 MEZZANINE (UPPER NUMBERS) Note labelling error: Pin 1 "BOOST*" = Expand Enable "BOOST_REF" = Force Normal SO-33110 BASE (LOWER NUMBERS) HO-33011 MEZZANINE (UPPER NUMBERS) HO-33110 BASE (LOWER NUMBERS) Planning and Installation Manual...
Page 129
Duplication and Expansion Figure 66. Location of gain switches for HO-33120 Universal Output base board and HO- 33121 Universal Output mezzanine board. DIP switch S5 Table 22. HO-33120 DIP switch S5 settings. Refer to example discussion on page 128. S5-3 S5-4 HO-33120 Base board HO-33121 Mezzanine board...
For example, in the system shown in Figure 67, Input 1would be split (duplicated) and sent to both chassis, etc. Figure 67. Frame 0 1 - 512 1 - 512 Trinix 512 x 512 Outputs expanded to 1024 PE 33016 1 - 512 used as...
Page 131
Figure 68, inputs 1-16 are not split (and therefore are restricted to outputs 1-512). Figure 68. 1 - 16 Frame 0 1 - 512 Trinix 17 - 512 512 x 512 Outputs expanded to 1024 PE 33016 17 - 512...
Page 132
Installation Figure 69. Location of gain jumpers on SI-33110 input board. HI-33110 is similar. Note labelling error: Some "Base" jumpers have reversed silkscreening. In all cases, "Expand Enable" requires a jumper between pins 1 and 2. Planning and Installation Manual...
Page 133
Duplication and Expansion Figure 70. Front-edge switches on VI-33100 base board. HI-33200 has SW543 only (other front-edge switches are not stuffed) SW543 SLIDE DIP SWITCH SW543 PUSHBUTTON SW706 PADDLE SWITCH SW705 SW701 SW702 ROTARY HEX SWITCHES SW703 SW704 DIP SWITCH POSITIONS SHOWN ARE FACTORY DEFAULTS PIANO DIP SWITCHES LEDs DS731...
Installation Output Reclocker Bypass Settings The following discussion applies to units equipped with the HO-33110 HD or the HO-33120 SD/HD Output Boards. Front edge DIP switches S5-8 and S1 through S4 on these output boards are used to control reclocking. Figure 71.
Output Reclocker Bypass Settings Table 24. Reclock settings for HD output boards. S5-8 Switch on S1 “AUTO RCLK” through S4 Reclock all outputs if possible. Bypass unlocked outputs. Closed All closed (Default setting) Bypass all outputs Open All open Closed for selected Reclock selected outputs if possible, otherwise turn OFF.
Installation Input Equalization Settings (DV-33512 Models Only) Recent versions of the DM-33512 Digital Matrix boards used in DV- 33512 routers have additional input equalization for improved HD per- formance; these boards are identified with “Pre-emphasis Added” stickers on the J421 headers used to connect the two halves of the board. If these stickers are present, and you are operating with Broadlinx 2.4 software or newer, DIP switches S401-7 and S401-8 (on both boards) should be set to “On;”...
Output Monitoring Output Monitoring Output monitoring allows verification of switcher performance without interrupting normal operations. A separate internal switching system is used to switch the Monitor Output to any output of the switcher. Using a control panel, the operator picks an output as usual—in this case, the Monitor Output.
Page 138
Installation Figure 73. Example of output monitor connection for 128 x 128 all-NTSC switcher. SECONDARY PRIMARY OUTPUT MONITOR REF IN OUTPUT MONITOR REF IN COM BUS NICB COM BUS NICA CROSSPOINT BUS CONSOLE B CROSSPOINT BUS CONTROL CONSOLE A (Terminate) QC STATION JUPITER CONTROL SYSTEM...
Page 139
Output Monitoring Figure 74. Example of output monitor connection for 256 x 256 all-NTSC switcher. QC STATION SECONDARY PRIMARY NIC B NIC A SWITCHER CONTROL COM BUS COM BUS PANEL CONSOLE CONSOLE CONTROL GPIO/TC CROSSPOINT BUS JUPITER CONTROL SYSTEM Planning and Installation Manual...
Page 140
Installation Figure 75. Example of output monitor connection for 512 x 512 all-NTSC switcher. QC STATION PS IFC FAN IFC XPT BUS SWITCHER CONTROL PANEL COM BUS COM BUS ALARM LEVEL SUPER ULTRA INPUT EXPAND MONITOR FRAME OUTPUT EXPAND 1024 SYNC REDUNDANT 1536 INT XPT CNTL...
Output Monitoring Setting the Output Monitor Address Figure 76. Output Monitor Address Switches MONITOR MONITOR MONITOR 1536 1024 2048 1024 DV-33256 CHASSIS DV-33512 CHASSIS DV-33128 CHASSIS Note On all the rotary switches, use the triangular arrowhead for pointing (not the screwdriver slot). Note Some units in the field may have incorrect labels on these switches.
Installation Table 25. DV-33128 (128 X 128) DV-33256 (256 X 256) Monitor Output Number Monitor Output Number Switch and Address Switch and Address 129* 130* 131* 132* 257* 258* 259* 260* 257* 258* 259* 260* 513* 514* 515* 516* 385* 386* 387* 388*...
Page 143
Output Monitoring – If the NR board is in the Secondary slot, S3-8 (labelled “A”) applies to Monitor Output 3; S3-7 (labelled “B”) applies to Monitor Output 4. SR-33000 Monitor Output switches “Bypass B” S2-7 and “Bypass A” S2-8 select “auto detect on” or “force bypass” for the Monitor outputs. “Auto Detect”...
An example of an output-expanded system in shown in Figure 77; and input-expanded system in shown in Figure Figure 77. Monitoring with Output-expanded System. Frame 0 1 - 256 1 - 256 Trinix 256 x 256 PE-33016s 1 - 256 used as Output monitor video splitters Frame 2...
Page 145
Output Monitoring For all expanded systems with Monitoring, the “B” switch on the rear of the chassis must be set to ON (closed). See page 98 (128 x 128); page 100 (256 x 256); or page 102 (512 x 512). The “Monitor”...
FRAME 14 15 Up to 16 Trinix chassis can be configured to operate as a single router. The FRAME rotary switch on the rear panel is used to indicate the rel- ative position of each individual chassis to the input-output matrix.
Page 147
Frame Number Settings Table 29. DV-33512 (512 X 512) FRAME NUMBER INPUTS 1537- 2048* 1025- 1536* 513- 1024* 1-512* 513- 1025- 1537- OUTPUTS 1-512* 1024* 1536* 2048* *For Jupiter-controlled (0-based) systems, subtract one (1) from these input/output numbers. Planning and Installation Manual...
VM-3000 System Controller Ungrounded 50-ohm terminator The Jupiter Facility Control System can be used to control the Trinix router using a VM-3000 System Controller (Figure 80). The VM can receive switching commands from a variety of serial sources, including Jupiter control panels or an automation computer. The new CM-4000 System Controller is also available as a control interface.
Page 149
DV-33512 - two or more chassis The CB-3000 is described in detail in the Jupiter Installation and Operating manual. In Trinix applications, the crosspoint bus must be terminated at the point farthest from the control processor using a Crosspoint Bus Terminator, part number 01-053050-001.
Installation Figure 81. CC-2010 wiring. Reference: Assembly, CC-2010 Matrix Cable,” Grass Valley drawing no. 01-032707-TAB Twisted pairs Shield Reset Black Black Yellow Yellow Data Black Black Green Green Clock Black Black Blue Blue Take Black Black White White Confirm Black...
Page 151
Jupiter Control 2. Set the Trinix “INT XPT CNTL” rear-panel DIP switch to Off (switch open). See Figure Figure 83. OPEN CLOSED INPUT EXPAND OUTPUT EXPAND SYNC REDUNDANT INT XPT CNTL 60Hz ENABLE This will cause the Broadlinx board to release control of the Trinix internal crosspoint bus.
Page 152
0-based. When controlling such units, references to Physical Input/ Output connectors in Jupiter tables refer to that connector number plus 1. E.g., Physical Input 10 in the Jupiter Switcher Input table would cor- respond to connector number 11 on the Trinix rear panel. Planning and Installation Manual...
SMS 7000 / Encore Control SMS 7000 / Encore Control These control systems use an Ethernet connection to the Broadlinx option (NR-33000 Sync/NIC/OPM board). 1. Set the Trinix “INT XPT CNTL” rear-panel DIP switch to On (switch closed). See Figure Figure 85.
Page 154
Installation b. On DV-33512 units only, the rear-panel rotary Level switch must be set to “Ultra” crosspoint bus, Level 1; i.e., the Super/Ultra rotary switch must be pointed straight down to “0” and the adjacent rotary switch must point at “1.” These restrictions do not apply to DV-33128 and DV-33256 units.
If you plan on using a secondary NR-33000 board connect another Ethernet cable from the “NIC B” jack to the network switch. If the Trinix LAN is connected to the Internet the connection should be made through a firewall. Compliance with EEC, EMC, EN series, UL- 1950, and CSA C22.2 No. 950-M89 standards requires use of a shielded cable.
Page 156
If you plan on using a secondary NR-33000 board connect another Ethernet cable from the “NIC B” jack to the network switch. If the Trinix LAN is connected to the Internet the connection should be made through a firewall. Planning and Installation Manual...
Page 157
Broadlinx or SNMP monitoring. Figure 90 shows the recommended connections when the system is equipped with redundant NR-33000 boards and redundant Encore controllers. Figure 90. Encore connections to Trinix Ethernet switch Primary Encore controller Secondary Encore controller Ethernet switch Ethernet switch...
SNMP. The Com Bus uses a 10/100BaseT (Cat 5 twisted pair) cable with RJ-45 connectors. Shielded cable is recommended, maximum length 60 meters. Maximum length for unshielded cable is 100 meters. Figure 91. Trinix frames with SR-33000 Sync/OPM or SR-33500 Trinix frame...
• To configure the board using the Grass Valley NetConfig appli- cation, refer to the NetConfig Instruction Manual, part no. 071 8190 xx. If SNMP/NetCentral monitoring is to be used, the Trinix SNMP agent residing on the NR-33000 board must be enabled (i.e., licensed). For more information, see...
Page 160
Installation Planning and Installation Manual...
When licensed to do so, Broadlinx will also support SNMP/NetCentral monitoring. Network Configuration LAN devices used with Trinix (e.g., a monitor PC or the SMS system) must be on the same network as the Broadlinx board, or else be con- nected to the board through a network router.
Page 162
Broadlinx b. Reboot the PC to apply the changes. If desired, you can use the MS-DOS ipconfig command to verify the settings. If desired, these settings can be restored to their previous values once the Broadlinx board has been configured. You must have admin privileges to change Internet settings on a Windows 2000 PC.
Complex Network If the network includes additional PCs, connections to additional net- works, etc., or if there is more than one Broadlinx board, then the factory default network settings of the board(s) will need to be adjusted to avoid conflicts. 1.
Page 164
Broadlinx Figure 93. 8. Press the “Configure Network Interface” button (orange box with > in it) to navigate to the Network Configuration page. You will be prompted to enter a User Name and Password. Enter “admin” for the User Name, “admin” for the Password, and press the Log On button to continue.
Page 165
Secondary Controller IP (Encore redundant control only) - Enter the address of the Mirror System Controller Board. Gateway IP - used only if the Trinix is connected to the Broadlinx PC through a gateway. Time Server IP (optional, network time server address).
Step 6 page 163. Software Installation Broadlinx boards are shipped with all current Trinix software installed. For upgrade information, refer to the Field Engineering Bulletin sup- plied with the software. SNMP/NetCentral Monitoring For a brief description of SNMP/NetCentral monitoring, see...
Page 167
Figure 95. In this example, “Device Tree” is the System Description. This name can be modified if desired (as described on page 174). The list below the System Description can be expanded to show all system PC boards and modules available for Broadlinx communication. The graphic of the router front panel shows the status of the master alarm (green or red dot).
Page 168
Broadlinx Checking Hardware Status 1. Connect to the router following the procedure just described. 2. Click on the graphic of the router front panel. A line drawing of the Trinix chassis will appear (similar to Figure 96). Figure 96. In this example, all modules and boards show a green dot meaning that operation is normal.
Page 169
Figure 97. Example of web page for specific board Planning and Installation Manual...
Page 170
“1” through “4” on the back of the chassis. • “Output”- numbers that are entered in the control system (e.g., Jupiter) to identify the Trinix monitor outputs. In this example, which shows a 256 x 256 router, the four monitor output numbers are 256, 257, 258, and 259 (in the Jupiter environment these are referred to as “physical”...
Page 171
• “Reclocker” (DV-33512) - “L” = monitor output board is locked to (and is reclocking) the signal. “B” = monitor output board is bypassing (and not reclocking) this signal For more information about output monitor reclocking, see page 142. For more information about output monitoring, refer to the manual supplied with the control system.
Page 172
Broadlinx Selecting the Outputs tab will display a menu similar to that shown in Figure 100. This table shows the status of each physical output (i.e., the number of the physical input switched to the output) and whether or not the reclocking circuit is enabled for the output. For more informa- tion about reclocking see page 129.
Page 173
Configuration 1. Connect to the router following the procedure described on page 166. 2. Select “Configuration.” This will display a menu similar to that shown in Figure 101. Figure 101. The “Firmware” field shows the version number of the last-activated top-level software package.
Page 174
Broadlinx Time Management Broadlinx time settings are used only to timestamp the “Events” log entries. The menu is shown in Figure 102. Figure 102. This clock will synchronize automatically to a VITC signal on line 14 of the sync reference input. The Daylight Savings Time box must be checked or unchecked manu- ally at the appropriate time during the year.
Page 175
Firmware Management Figure 104. The firmware used in the Trinix system consists of a collection of pro- grams operating within the various PC boards. These programs are identified either by a sub-level revision number from 1 to 255 or by a date.
Page 176
Web Interface - software used to communicate with the PC (used only on NR board) Each Trinix circuit board typically has a program active in one or more FPGA (Field Programmable Gate Array) ICs and another program active in a microcontroller IC. The FPGA controls the board’s switcher functions, while the microcontroller allows Broadlinx communication to and from the FPGA and other board components.
On-line Help If Adobe Acrobat Reader is installed on the PC, the Trinix manual can be displayed on line by clicking the “Help” command in the Broadlinx title bar. (The Help command may be beyond the right margin of the Broadlinx window;...
Page 178
Broadlinx Planning and Installation Manual...
The “Secondary” column is used to enter the corresponding secondary output number for each protected pair. If the Trinix is set for Encore control (rear panel switch set to “INT XPT CNTL” = closed), these columns will automatically be shown as 1- based.
Page 180
Protected Path Configuration A black status flag means that the output is not available because an HO-33120 board is not present in that slot. The “-1” indicator means that the output is available for protected path operation but has not been assigned a secondary path. The “Toggle”...
Page 181
System Configuration Figure 105. Broadlinx web page for protected path configuration (example) Figure 106. Command buttons on bottom of protected paths menu Planning and Installation Manual...
Page 182
Broadlinx board is normally set so that both alarm modes will also enable the rear-panel “Alarm” BNC connector. Additional information concerning the Trinix system alarm can be found in the Trinix manual. Protected path alarms As described above, the protected path web page will indicate failure/changeover conditions using various colors and flags.
Page 183
System Configuration Auto-fill Editing Tool When entering output numbers, a range of outputs can be assigned with a single command. The range can be indicated with a “Start,Stop” entry or a “Start+n” entry. For example, at the Primary “12” row, in the “Secondary” field, entering “258,260”...
When the router is controlled by Encore, protected path operation requires configuration as follows: 1. Create two levels (one for each of the primary and secondary paths): Figure 107. 2. Create a Physical matrix for Trinix with a single, blocked segment: Planning and Installation Manual...
Page 185
Encore Configuration Figure 108. 3. Enable the Share option in the Segment configuration (this allows the segment to be shared across multiple logical matrices). 4. Create two logical matrices (one for each of the primary and secondary paths): Planning and Installation Manual...
Page 186
Protected Path Configuration Figure 109. 5. Assign one logical matrix to the primary level, assign primary logical matrix “Element 1” to be the Segment created in StepStep 2 above. 6. Assign the other logical matrix to the secondary level, assign secondary logical matrix “Element 1”...
Page 187
Encore Configuration 7. Using the Source Configure screen, select the desired source and enter the logical matrix names connector numbers for the primary and secondary levels on the selected source: Figure 110. Planning and Installation Manual...
Page 188
Protected Path Configuration 8. Using the Destination Configure screen, select the desired destination and enter the logical matrix names and connector numbers for the primary and secondary levels on the selected destination: Figure 111. Note With Encore systems, there is no “follow” level locking function, i.e., it remains possible to inadvertently perform a breakaway switch.
Jupiter Configuration Jupiter Configuration As described earlier, the control system (e.g. Encore or Jupiter) must be operated so that the secondary path is always ready to provide a copy of the protected signal. To simplify operation, a Jupiter control system should be configured so that the secondary path will be switched automatically, i.e., “follow”...
Page 190
Protected Path Configuration Switcher Input Tables With two logical levels defined on the Switcher Description table, the Switcher Input and Switcher Output tables will automatically show a column for each level. In order to perform two-level switching, Switcher Input tables and Switcher Output tables are used to describe the primary and secondary paths.
Operation Notes Operation Notes Jupiter Systems CAUTION For Jupiter-controlled routers, replacing an HO-33120 output board that is part of a protected path scheme will cause a momentary loss of video on the active output. In other words, video will be lost on the board not being replaced.This interruption will continue for several seconds.
Page 192
Protected Path Configuration Planning and Installation Manual...
SD, digital SD, or digital HD signals in any combination and passes them in digital SD or digital HD form (as appropriate) to the Trinix matrix board. When analog signals are received, an extensive set of gain, phase, filtering, and other adjustments are available for each signal.
133. Pinouts are shown in Table CAUTIONThe Trinix system should not be operated with the front door open for extended periods. Therefore the configuration cable should be discon- nected from the VI-33100 board when not in use and the door closed.
Page 195
TRX-VI-33100 Module Figure 114. ======= MAIN Menu Options ======= 1.) Setup Composite Video. 2.) Setup Video Processing. 3.) Setup Vertical Blanking. 4.) Setup Timing. 5.) Setup Picture Enhancer. 6.) Display Channel status. 7.) Save or Recall a Configuration File. Select a menu option: 5.
Page 196
Analog Input Processing General notes about the setup application editor Here are a few conventions about the setup application editor that may be helpful to know: • Tables are edited using keyboard shortcut keys (not the mouse or cursor keys). The applicable shortcuts are listed on the bottom of the display.
Page 197
TRX-VI-33100 Module Table 32. Channel number equivalents. Input number Corresponding as labelled on input number as router rear shown on table panel Planning and Installation Manual...
Analog Input Processing Main Menu Options This section assumes that the Terminal Setup procedure has been per- formed. 1.) Setup Composite Video Composite video selections are summarized in Table These adjustments are made in the composite video path (before decoding to component digital format) and apply to all lines (active picture and VBI) The actual menus are shown on page...
Page 199
TRX-VI-33100 Module Figure 115. Setup composite video menu for NTSC, showing setup for all 16 inputs. PAL display is similar. (Only Input 0 is connected in this example.) Video Composite In - -------------------------------------------------------------------------------- Reference - Input 0: Line Rate: 525 Line Type: NTSC (M, J) ================================================================================ Disable (Off) 0...
Page 200
Analog Input Processing 2.) Setup Video Processing These adjustments are made in the video path and apply to all lines (active picture and VBI) Video processing selections are summarized in Table The actual menus are shown on page 201. Table 34. Video processing selections Processing Range/Choices Function...
Page 201
TRX-VI-33100 Module Figure 117. Video processing menu for NTSC, showing setup for all 16 inputs. PAL display is similar. (Only Input 0 is connected in this example.) Video Processor - -------------------------------------------------------------------------------- Reference - Input 0: Line Rate: 525 Line Type: NTSC (M, J) ================================================================================ Disable (Off) 0 Enable...
Page 202
Analog Input Processing 3.) Setup Vertical Blanking The Notch Decode Mode and the Chroma Kill selections apply to all lines in the VBI. Each line pair in the VBI can be set to pass or blank the incoming signal. In NTSC systems, each of these line pairs can also be set to add Setup if desired.
Page 203
TRX-VI-33100 Module Figure 119. Vertical blanking interval menu for NTSC, showing setup for all 16 inputs. PAL display is similar. (Only Input 0 is connected in this example.). Vertical Blanking Interval (VBI) - -------------------------------------------------------------------------------- Reference - Input 0: Line Rate: 525 Line Type: NTSC (M, J) ================================================================================ Disable (Off)
Page 204
Analog Input Processing 4.) Setup Timing The following adjustments are made after conversion to digital format and apply to all lines (active picture and VBI). Vertical blanking selections are summarized in Table The actual menus are shown on page 205. Table 36.
Page 205
TRX-VI-33100 Module Figure 121. Summary of timing setup for NTSC, showing setup for all 16 inputs. PAL display is similar. (Only Input 0 is connected in this example.).. Timing - -------------------------------------------------------------------------------- Reference - Input 0: Line Rate: 525 Line Type: NTSC (M, J) ================================================================================ Horizontal Timing: 0.0 to 857.5 pixels (0.5 steps) for 525...
Page 206
Analog Input Processing 5.) Setup Picture Enhancer Picture enhancement selections are summarized in Table The actual menus are shown on page 207. Table 37. Picture enhancement selections. Processing Range/Choices Function Default Resolution Type 0 = Disabled 1 = Low Detail Enhancer Level 2 = Medium 3 = High Planning and Installation Manual...
Page 207
TRX-VI-33100 Module Figure 123. Picture enhancer menu for NTSC, showing setup for all 16 inputs. PAL display is similar. (Only Input 0 is connected in this example.). Picture Enhancer - -------------------------------------------------------------------------------- Reference - Input 0: Line Rate: 525 Line Type: NTSC (M, J) ================================================================================ Detail Enhancer Level: Disabled...
Page 208
Analog Input Processing 6.) Display Channel status These menus are shown below. Figure 125. ======= Channel(s) Status Menu Options ======= 1.) Display status of channels: 0 thru 3. 2.) Display status of channels: 4 thru 7. 3.) Display status of channels: 8 thru 11.
Page 209
TRX-VI-33100 Module When a group of inputs (channels) is selected, the display will show the values for those channels: Figure 126. Channel Status display for four channels. Channels: ---------------------------------------------------------------------------- Video Composite In: Monochrome Input (On/Off) : Remove Setup (On/Off) Chroma Kill (On/Off) Video Decode Mode AGC Enable (On/Off) Input Video Gain (%)
Page 210
Create or browse to a directory on the PC where the file will be stored. Suggestion: “c:\Program Files\Thomson\Trinix\VI-33100.” e. Select Xmodem for the protocol. Then select “Receive.” Enter a filename where the data will be saved on the PC.
Section Troubleshooting LEDs Front panel Display Meaning POWER/ALARM Master alarm for this chassis: check internal alarm LEDs Green Power on, chassis OK Secondary warning: single fan failure or secondary NR board is Amber active. Check internal alarm LEDs System is not powered Power supplies Display Meaning...
Troubleshooting Input boards - SI-33110 SD and HI-33110 HD Part side Display Meaning Master alarm for this board. A DC supply has ALARM DS601 failed to turn on Board OK -5VAOK DS31 Green -5 VA supply OK Check -5 VA supply IN_USE DS602 Reserved for future use...
Page 213
512 Matrix board - DM-33501/33502 Part side Display Meaning IN USE A DS201_1 Yellow A crosspoint is active in XPT_A IC No crosspoints are active in XPT_A IC P2V5A OK DS204_1 Green P2V5A converter is OK (for XPT_A side) P2V5A converter has failed IN USE B DS201_2 Yellow...
Page 214
Board OK *Trinix 512 Output Card Used as Power Source Only - In some expanded DV-33512 systems, a single output board will be the only board in one section of the router. This board is used to provide power to certain com- ponents on some of the input boards.
Page 215
P_ALRM_N DS901 Master alarm for this board Board OK SR-33000 Sync Reference / Output Monitor (OPM) board Part side Display Meaning DS509 Green Receive COM bus activity DS510 Green Send COM bus activity Dip side IN_USE Yellow Output Monitor is active Green Xilinx load done 3V3+OK...
Page 216
Troubleshooting This card has control of Com Bus and/ ACTIVE Solid yellow or Crosspoint Bus. Crosspoint bus active. Internal XPT control. This card has control of Com Bus. Com ACTIVE Dim or blinking yellow bus activity. External XPT control (e.g. Jupiter VM-3000).
Page 217
NR-33000 dual 7-segment LED CPU codes End of bus 0 first access to segment display if the start type is BOOT_COLD End of bus 1 If there is a memory check sum error in the EEPROM. If there is an I2C timeout while communicating with the SDRAM mod- ule.
Troubleshooting Signal flow Signal flow for a 256 x 256 router, which requires four matrix cards, is shown below. Figure 127. HS-33200 Backplane DM-33100 128 x 128 Fabric (matrix) board No.1 DM-33100 128 x 128 Fabric (matrix) board No.2 Inputs 129-256 Outputs 1-128 Outputs 129-256 Inputs 1-128...
Appendix SNMP Managers Adding SNMP Managers This appendix describes special procedures for adding a new SNMP Manager to any matrix when the user is NOT using NetCentral as the SNMP Manager. 1. Send a GET request for gvgTtCfgTableNextIndex variable defined in GVG-ELEMENT-MIB e.g.: if it returns 2.
E.g.: in this case generate a SET request for 1.3.6.1.4.1.4947.2.1.3.3.1.3.2, where 2 is the next available index and syntax is OCTET STRING. Enter the community string that would be used for the communication between matrixes (Trinix/Concerto/7500WB/7500NB) and SNMP Man- agers. 5. Now Send a SET request for gvgTtCfgEntryStatus (1.3.6.1.4.1.4947.2.1.3.3.1.4).index, where index is the value returned in...
20 buses” means being able to select sources for 20 destinations. CPL - Control Point Language. Protocol used to control router through Encore / SMS 7000 Ethernet connection. In Trinix applications, the connection is made to a NR-33000 Broadlinx board.
Page 224
EBU - European Broadcasting Union. Internet address: http://www.ebu.ch/. extended crosspoint bus - see CROSSPOINT BUS fabric board - DM-33100 matrix board used in Trinix router. FPGA - Field Programmable Gate Array. HI-33110- precursor to HI-33200 SD/HD Input Module. Consists of a 16-input base board (HI- 33110) and a 16-input mezzanine board (HI-33011), providing 32 inputs.
Page 225
status - in a distribution switcher, a display indicating what source is currently switched to a given destination. super crosspoint bus - see CROSSPOINT BUS Planning and Installation Manual...
Page 226
Glossary Planning and Installation Manual...
Input board LED Bypass 0-31 60 Hz enable C switch A REF Canadian EMC NR-33000 board LED Cat 5 cable A switch Cat 5E cable AC OK LED CB-3000 Acrobat CDRH ACTIVE CENELEC NR-33000 board LED Trinix Planning and Installation Manual...
Page 228
Data reclocking Daylight savings time DC OK LED DHCP Fabric board defined FAN ALARM LED Digital Matrix board. See DM-33100 or DM- FAN IFC connectors 33512 Fans Dip switch settings FAQ database rear panel DM-33100 Trinix Planning and Installation Manual...
Page 229
Jupiter control LEDs reclock settings HO-33120 data rates gain switches NR-33000 board LED LEDs Laser Compliance reclock settings LD-33100 HO-33121 LEDs gain switches power supply Hot swapping 104, Level Hyper terminal Defined Trinix Planning and Installation Manual...
Page 230
Physical dimensions NetCentral Physical level Notch Decode Mode defined NR-33000 Planning guide CPU codes Port expanders LEDs Power consumption PALARM Power supply switches & jumpers redundant 104, NTSC or PAL blackburst removing Numbering POWER/ALARM LED 0-based/1-based Trinix Planning and Installation Manual...
Page 231
SNMP REF_ALRM B SNTP IP SR-33000 board LED SO-33110 Reference signals LEDs Refresh Spares Kit Defined Specifications Regulatory Notices SR-33000 Returning merchandise LEDs RFI modifications PALARM Router (network) Switch S2 142, 143, switches & jumpers Trinix Planning and Installation Manual...
Page 232
TRX-HI-33200, TRX-HI-33201, etc. See model 512 Matrix board LED number, e.g., "HI-33200" SR-33000 board LED SR-33000 board LED NR-33000 board LED XPT BUS connector 17, 73, 76, 155, Universal input board NR-33000 board LED User name UTC offset Trinix Planning and Installation Manual...
Need help?
Do you have a question about the Trinix and is the answer not in the manual?
Questions and answers