Summary of Contents for UTAH SCIENTIFIC Utah-400 2 Series
Page 1
The Utah-400 Series 2 XL, 528, 288, 144 and 72 Systems Setup and Operations Guide...
Page 2
Information contained in this guide is subject to change without notice or obligation. While every effort has been made to ensure that the information is accurate as of the publication date, Utah Scientific, Inc. assumes no liability for errors or omissions. In addition, Utah Scientific, Inc. assumes no responsibility for damages resulting from the use of this guide.
Page 3
Following the provisions of the Directive(s) of the Council of the European Union: EMC Directive 89/336/EED • Low Voltage Electrical Directive 72/23/EEC • Utah Scientific, Inc. hereby declares that the product specified above conforms to the above Directive(s) and Standard(s). UTAH-400 Series 2...
Page 4
Important Safeguards and Notices This section provides important safety guidelines for the Operator and Service Personnel. Specific warnings and cautions are found throughout the guide where they apply, but may not appear here. Please read and follow the important safety information, specifically those instructions related to risk of fire, electric shock, or injury to persons.
Page 5
Dangerous voltages exist at several points in this product. To avoid personal • injury, do not touch exposed conductors and components while power is on. Do not insert anything into either of the systems two-power supply cavities with power connected. Do not wear hand jewelry or watches when troubleshooting high current cir- •...
Page 6
Company Information Utah Scientific, Incorporated 4750 Wiley Post Way, Suite 150 Salt Lake City, Utah 84116-2878 U.S.A. Telephone: +1 (801) 575-8801 • FAX: +1 (801) 537-3098 • Technical Services (voice): +1 (800) 447-7204 • Technical Services (FAX): +1 (801) 537-3069 •...
Page 7
Warranty Policies Hardware Warranty Utah Scientific, Inc. warrants to the original purchaser that the Utah Scientific hardware is free from defects in materials and workmanship and will perform substantially in accordance with the accompanying written materials under normal use and service for a period of ten (10) years from the date of shipment.
Page 8
Utah Scientific products, even if Utah Scientific has been advised of the possibility of such damages. Because some states/jurisdictions do not allow the exclusion or limitation of liability for consequential or incidental damages, the above limitation may not apply in those circumstances.
Page 10
Offset Switch 2-27 Serial Port 2-28 Ethernet Port 2-29 GPIO Port 2-30 Installing the Video/Unbalanced Digital Audio Input & Output 2-31 Installing the Analog Audio Input and Output Cables 2-33 Connecting and Disconnecting Power 2-34 DC Connectivity 2-36 Pre Power-Up Checks 2-37 UTAH-400 Series 2 - 72x72 AV Router 2-40 Overview 2-40 Rear Panel Interconnect 2-41...
Page 12
Power Supplies 4-31 Controls And Indicators 4-32 Specifications 4-32 Rear Panel Connections 4-33 UT400 Series 2 Embedding SDI Output Card – 121293-1/2 4-34 General 4-34 Circuit Description 4-35 Control 4-35 Power Supplies 4-36 Controls And Indicators 4-36 Specifications 4-37 Rear Panel Connections 4-38 UT400 Series 2 Embedding SDI Fiber Output Card –...
Page 13
Table of Contents 121245-1 Rear Panel Layout (BNC) 4-58 Specifications 4-58 UT4-528 Standard Digital Audio Output with TDM Board – 121289-1 4-59 General 4-59 Circuit Description 4-59 Controls and Indicators 4-60 Specifications 4-64 Serial Diagnostic Port Commands 4-65 UT4-528 Digital Audio Digital to Analog (DAC) Output with TDM Board –...
Page 14
Controls And Indicators 4-97 Specifications 4-98 Rear Panel Connections 4-99 Serial Diagnostic Port Commands 4-99 UT400 Series 2 MIHI Video + MADI Input Card 4-101 General 4-101 Circuit Description 4-101 Controls And Indicators 4-102 Specifications 4-103 Rear Panel Connections 4-103 Serial Diagnostic Port Commands 4-104 UT400 Series 2 SMPTE 2022 Receiver (121400-1) 4-106 General 4-106...
Page 15
Table of Contents Troubleshooting CHAPTER 5 In This Chapter 5-1 Subsystem Level Troubleshooting 5-2 Main Troubleshooting Chart 5-2 Video Subsystem Troubleshooting Table 5-4 Audio Subsystem Troubleshooting Table 5-5 Power Subsystem Troubleshooting Table 5-6 Power Supply Alarms 5-6 Control Subsystem Troubleshooting Table 5-7 System Controller Alarms 5-8 Control Panel Troubleshooting 5-9 UNET Panels 5-9...
Page 16
The Debug Port APPENDIX B Diagnostic Port Usage B-1 Physical Connections B-1 Baud Rate and terminal Settings B-1 Terminal Settings B-2 Recommended Terminal Emulation Program B-2 System Diagnostics – Frame Controller Module B-2 121222-1 Crosspoint card Diagnostic Interface B-7 121323-1 TDM Audio Crosspoint Carrier for 528 Systems Diagnostic Interface B-10 121248-1 Crosspoint card Diagnostic Interface B-12 1242-1 Crosspoint Card Diagnostic Information B-15...
In This Guide This guide provides instruction for the installation, configuration, and operation the Utah Scientific, Utah-400 528 and XL Router Systems. These routers contain redundant crosspoints with 44 to 88 slots for both the input and output and cards, and stand 20 and 40 rack units in height.
Page 18
"Troubleshooting" looks at some of the common hardware and software problems, diagnostics and solutions available to the user on site. Included in this section is information on the various avenues to contact Utah Scientific Technical Services and tips on discussing equipment prob- lems.
Conventions Conventions The following conventions are used throughout this guide: Connectors and terminators will be indicated by bold, upper case text in Arial Black font. • For example: • Connect the MX-Bus to J-1 Operator Actions will be indicated in Helvetica Bold where a board is inserted, removed •...
Introduction Abbreviations The following abbreviations may be used in this guide: See Appendix A for an additional Glossary of Terms and further definitions. Common Abbreviations and Mnemonics TABLE 1. Abbreviation Description Audio Tape Recorder Audio Engineering Society Central Processing Unit Digital Tape Recorder European Broadcast Union ENET...
Terms Terms The following terms are used throughout the documentation in this guide: "Operator" and "User" refer to the person using or operating the Utah-400 Digital Router • System. "System" refers to the entire interconnected Utah-400 System including control panels, •...
Introduction "Monitor" refers to the monitor attached to the monitor matrix port of a video or audio router • system. "High Definition" " refers to signals conforming to the SMPTE -292 specification. The typ- • ical high definition data rate is 1.485 Gb/sec or 1.483 Gb/sec and a 16:9 Aspect Ratio Pic- ture characterizes this technology.
Routing Switcher Basics Switching Matrix A switching matrix is the internal array of inputs, crosspoints and outputs that allow a routing switcher to perform the task of routing signals from sources to destinations. The figure below illustrates a simple 10 X 10 switching matrix – with 10 Inputs and 10 Outputs. Note the following points regarding the illustration: Inputs 0 1 2 3 4 5 6 7 8 9...
Introduction Signal Levels A "signal level" represents one of many specific types of audio or video elements that a routing switcher is capable of handling. The typical signals capable of being switched are: Analog Video • Analog Audio (stereo with left and right channels). •...
Routing Switcher Basics The Utah-400 Routing Matrix The Utah-400 router utilizes a ‘3 board’ architecture that consists of an input-crosspoint-output card combination. This unique 3-board technology allows for a greater flexibility of input and output combinations available to the user. Each input or output board contains twelve signal paths so the user can expand in groups of twelve up to the maximum capacity of the router.
Page 26
Introduction The output from the crosspoint is directed to its proper path on the output bus and the appro- priate output board slot. When the output board detects a valid output signal, it will illuminate the appropriate Signal Presence LED. From this point the output signal is sent to its output driver and its BNC.
Page 27
Routing Switcher Basics The 528 and XL systems utilize all the same plug-in cards to create their configurations. The 528 frame offers redundant crosspoints and a 528 port input by 528 port output system in 20 RU, while the XL system provides no dedicated cross point redundancy, but a 1056 port router in 40 RU.
Page 28
Introduction Component Locations XL Configuration Power Supply FRAME CONT ROLLERS INPU TS INPU TS 528 - 791 792 - 1055 6 7 8 OUTPU TS OUTPU TS 528 - 791 792 - 1055 FAN 3 FAN 4 CHASSIS BOUNDA RY MONI TOR M ATRIX FAN 1 FAN 2...
Introduction UT-400 Embedded Signal Processing Functionality The Series 2 routers were designed with one more redundant, high speed data path from the IO cards to the crosspoint array than is necessary for their base operation as crosspoint based audio or video routers. This path is used, among other things, to carry a TDM based communi- cations signal from input cards where it is generated, to a central crosspoint array where it is switched, and finally to an output card slot where the signal can exit the router as AES, part of a MADI signal, or as an embedded audio channel on a video output.
Page 37
UT-400 Embedded Signal Processing Functionality A TDM audio crosspoint must be placed on the crosspoint cards within the system. • Note that in 528 systems, the TDM submodules install on Video Crosspoint numbers 0 and 2, and in the XL router the TDM submodules install on Video Crosspoint num- bers 0 and 3.
Introduction TDM Enabled IO Cards Following is a list of USI line cards that can generate or receive TDM streams. Supported Signal Types All AES signals contributed the TDM matrix either from a video stream, an AES input card or a MADI input card, must be at 48KHz sample rate and synchronous to the AES DARS reference presented to the rear of the router.
UT-400 Embedded Signal Processing Functionality Audio Delays – At each input, whether MADI, AES or Video, the incoming AES audio is aligned to the DARS reference presented to the router. Depending on the timing of that signal, this alignment will result in slightly more than one to slightly less than two AES samples. This equates to between 20.83 and 41.66 micro seconds.
Hardware Installation CHAPTER 2 In This Chapter This chapter provides instructions for installing your Utah-400 router in your facility. The following topics are covered: Caution: To avoid damage to the system, do not connect AC power until the hardware is fully installed. Unpacking and Inspection ..............
Contact your dealer and shipper immediately if you suspect any damage has occurred during shipping. Check the contents of each carton against your Utah Scientific order and verify them against the shipping manifest. If any items are missing, contact your dealer or Utah Scientific immediately.
Page 43
Unpacking and Inspection Recommended unpacking method: With carton setting upright, open the top. Remove the Styrofoam packing material in the top of the box. Remove the accessories. Remove the Styrofoam packing from the top of the Utah-400. Carefully cut the packaging around the base of the unit (see illustration below), then pull the shipping container away from the chassis.
Contact your dealer and shipper immediately if you suspect any damage has occurred during shipping. Check the contents of each carton against your Utah Scientific order and verify them against the shipping manifest. If any items are missing, contact your dealer or Utah Scientific immediately.
Page 45
Unpacking and Inspection Carton truck removal - 2 FIGURE 2-4. Carton top removed - 1 FIGURE 2-5. Utah 400 Series 2...
Page 46
Hardware Installation Carton top removed - 2 FIGURE 2-6. Carton housing lifted from base - 1 FIGURE 2-7. Hardware Installation...
Page 47
Unpacking and Inspection Carton housing lifted from base - 2 FIGURE 2-8. Carton housing separated from base FIGURE 2-9. Utah 400 Series 2...
Page 48
Hardware Installation Rack lifted off carton base FIGURE 2-10. Rack lifted away from carton base FIGURE 2-11. Hardware Installation...
Page 49
Unpacking and Inspection Rack carried to staging area FIGURE 2-12. Rack brought upright FIGURE 2-13. Utah 400 Series 2...
Page 50
Hardware Installation Rack upright, ready for final location move FIGURE 2-14. 2-10 Hardware Installation...
Transferring an XL system between Equipment Racks In certain instances, a different equipment rack is required other than the one shipped by the Utah Scientific factory. The following description and illustration set will assist you in completing a chassis-to-rack swap when necessary.
Page 52
Hardware Installation With all screws removed, begin lifting the chassis from the bottom of the unit. Once the front of the chassis has cleared the top of the frame (by several centime- ters), allow each person to one-by-one reposition their hands to the lip on the front of the chassis (as shown).
Page 53
Unpacking and Inspection Lifting from the chassis lip, all attendants will carefully walk the router to the replacement rack, which should be positioned lengthwise next to the original rack. XL chassis lift and carry FIGURE 2-17. Utah 400 Series 2 2-13...
Page 54
Hardware Installation Reverse the lift-out process by lowering the chassis into the new rack, and like before, each individual should shift their hold (one-by-one) from the chassis lip to the rack bottom. XL placement into the new rack FIGURE 2-18. 2-14 Hardware Installation...
Page 55
Unpacking and Inspection Once the chassis has been seated in the new rack, replace all front mounting screws and lift the assembly into its original upright position. XL chassis - new rack positioning and upright placement FIGURE 2-19. Utah 400 Series 2 2-15...
Hardware Installation Installing Physical Equipment - 528 and XL Systems Installation of your Utah-400 Video and/or Audio router may require some or all of the following steps: Mounting equipment in rack frames. Installing MX-Bus cables. Connecting the AES Reference Signal. Determining and Setting the Router Signal Level(s).
Mounting Equipment in Rack Frames - 528 Systems Mounting Equipment in Rack Frames - 528 Systems Installing the Utah-400 Digital Routing Switcher Use the following steps to install the Utah-400 Systems into the rack frames: Determine the vertical layout of your frames before you begin the installation. Please note: •...
Page 58
Install the Utah-400 chassis' in the 19" rack frame. Note: Utah Scientific recommends a minimum of two persons, preferably three, to install the chassis in the rack frame. Install all mounting screws in the front of the chassis; the entire weight of the router and cables are supported by the chassis side-frames.
Page 59
Mounting Equipment in Rack Frames - 528 Systems a. Determine the height to mount the Utah-400 in the rack frame. b. Install two rack screws 3/4 of the way into the empty rack frame below the height determined in step a, above (leave a 1/8” gap). These screws will be used to sup- port the weight of the chassis when it is moved into the rack frame.
Page 60
Hardware Installation Replace all front covers when the installation is complete. 19" Rack Frame Slide Utah-400 Chassis into 19" Rack Frame #10 Rack Screw Sliding the Utah-400 Chassis into Rack Frame FIGURE 2-21. 19" Rack Frame Gently lower chassis onto the extended rack screw #10 Rack Screw Lowering the Utah-400 Chassis on the Rack Screw...
Your Utah-400 router is shipped standard with: One MX-Bus Cable – 10 ft. (USI Part Number: 80229-10). Other lengths are available and • may be ordered through Utah Scientific sales at 1–800–453–8782. Utah 400 Series 2 2-21...
Hardware Installation Interconnecting the SC-4 and Utah-400 Frames The MX-Bus interconnection to the Utah-400 typically starts at the SC-4 control system and is terminated at the last physical Utah-400 chassis. The actual physical arrangement depends on the site placement of the various physical components. The following illustration shows a typical MX-Bus installation.
Page 63
Installing the MX-Bus Cables The following illustration is a block diagram showing the Utah-400 in an MX-Bus daisy chain with other Utah Scientific equipment. Block Diagram of the MX-Bus Daisy Chain. FIGURE 2-25. Utah 400 Series 2 2-23...
Hardware Installation Connecting the AES Reference Signal In systems that contain any audio components such as AES or Analog audio IO, a TDM crosspoint submodule, or Dis-embedding input cards, and AES reference is required in order to allow the system to process that audio signals correctly. On the router Frame Controller Module, a Time Base submodule will be installed for these types of systems to receive and process the AES reference.
Installing the MX-Bus Cables Determining and Setting Router Signal Levels Signal levels are preset at the factory and tested during manufacturing, determined by cus- tomer input and requirements. The installation of your new Utah-400 Router should not require any signal level changes to operate after the new installation. By definition, a signal level represents distinct elements of the broadcast system.
Page 66
Hardware Installation Switch Settings Should you ever need to change the signal level of your router it is useful to determine: What new signal level is required. • If other signal levels will have to be modified to accommodate the new signal level. •...
Installing the MX-Bus Cables Offset Switch The offset switch allows you to provide a base offset to the router; containing inputs, outputs, or both. This applies when multiple routers are to be ‘stacked’ on the same level, or when mul- tiple router frames are placed in a larger matrix.
Hardware Installation Serial Port This is a RS-232 DTE port, and is used as for diagnostic purposes. A terminal emulation program such as Tera Term is used for communication. Baud Rate Information Baud 38400 Data Bits Stop Bits Parity Bits Handshake XON/XOFF Output Translation...
Installing the MX-Bus Cables Ethernet Port The 10/100 ethernet port is used as a diagnostic and monitoring port. Connect this to a stan- dard ethernet network. Utah 400 Series 2 2-29...
Hardware Installation GPIO Port The GPIO block provides the following functions: GPIO# Direction Function INPUT Indicate Power Supply Failure INPUT Unconnected (TBD) INPUT Controller Changeover INPUT Crosspoint Changeover SMPTE Alarm To activate a GPI input, short the + and - leads together. When the SMPTE Alarm is active, there will be a short circuit across the + and - pins.
Installing the MX-Bus Cables Installing the Video/Unbalanced Digital Audio Input & Output This section provides guidelines for installing the Utah-400 Video Inputs and Outputs on the backplane connectors. Serial Digital Video and Audio cable specifications are listed below. Recommended Cable Maximum Cable Input Signal Type...
Page 72
Hardware Installation Utah-400 528 and XL Video Unbalanced, or Audio Rear Panel FIGURE 2-28. 2-32 Hardware Installation...
Inputs and Outputs can be connected directly to the backplane using 37 pin high-density • "D" connectors and back shells. (Supplied with the system) Contact Utah Scientific sales for more information. Additional strain relief should be provided for each "D" connector, in addition to the connec- •...
Hardware Installation Connecting and Disconnecting Power The power system within the Utah-400 Series 2 router consists of two -48V power feeds present at the lower end of the chassis, and are fully isolated redundant feeds to each individual module (input card, output card, crosspoint card) within the system. With this architecture, there is no power supply assembly internal to the chassis itself, as each module receives and converts the -48V bus to its own internal requirements.
Page 75
Connecting and Disconnecting Power The black wire connects to the lower (negative) output post of the power supply and passes through a 40A fuse prior to connecting to the -48V input of the router. This fuse is a Littlefuse part number 142.6885.5402, or USI part number 41913-0001. Power Supply cable assembly (rear view) FIGURE 2-30.
Hardware Installation DC Connectivity The 528 and XL routers do not contain internal power supplies or AC connections. Each card in the system receives 48 VDC from two external power supply connections. Ground - Frame or chassis grounding point • 0V - Most positive leg of -48V DC connection.
Pre Power-Up Checks Pre Power-Up Checks Before applying power to the router, check the following: • All boards within the router must be fully seated; not crooked or outside the card guides. Monitor Matrix card Input and Output cards Crosspoint card Controller card Power On LEDs FIGURE 2-31.
Page 78
Hardware Installation Initial System Power-Up After verifying AC and DC power connections, apply power to the system. Verify that the fol- lowing system indications are present. All Chassis fans are turning, and all eight LEDs are green. The AC and DC power OK LEDs on the external power supply are on. The green Power OK LEDs on the crosspoint cards are on.
Page 79
I/O Cards Crosspoint Power Power Frame Communication Module 288 Systems FIGURE 2-33. Utah 400 Series 2 2-39...
Hardware Installation UTAH-400 Series 2 - 72x72 AV Router Overview The UTAH-400 Series 2 - 72x72 AV Router is the smallest member of the UTAH-400 Series 2 line. This router utilizes all of the same audio and video input, output, and rear panel cards as the rest of the Series 2 line, but with some significant differences from the other systems.
UTAH-400 Series 2 - 72x72 AV Router The 72x72 AV router contains two slots for video crosspoint cards; a primary and a redundant, and two slots for audio TDM crosspoint cards (primary and a redundant). There are two types of video crosspoint cards; the 121337-1 Deluxe crosspoint card and the 121337-2 basic crosspoint card.
Hardware Installation Hardware Checkout Use the following flow chart to check out your Utah-400 System. Note the following important points: For the Video and Audio System columns may be switched numerically if encoding is not • required. For the System Control column, the SC-4 Control system may require some configuration •...
Configuration and CHAPTER 3 Operation This chapter provides an explanation for specific Utah-400 configurations, and basic instruction for the handling and operation of your Utah-400 system. In This Chapter Utah 400 SC-4 Control ............. 3-2 Chassis Types ................3-4 Operation ..................
Configuration and Operation Utah 400 SC-4 Control Configurator Computer SC-4 Control System UNET Canbus Terminator Terminator SCP/UCP Ethernet Panel UCP/UNET Panel CNTL E-NET Port To UNET Port CSP - 16160 /8 Panel MC-2020 Digital Master Control Processor Serial 2 Ethernet Hub UTAH 400 528 x528 Redundant MCP-2020 Digital Master...
Page 85
Utah 400 SC-4 Control SC-4 Configuration for the Utah-400 and MC/MCP-2020 TABLE 2-1. SC-3/4 System Cable / Termination Table Part Name Part Number Description Comments UNET Terminator 65324-04 8 RJ-45 Supplied by USI MX-Bus Terminator 70797-1 DB-25P Module Supplied by USI MX-Bus Cable 80229-010 Parallel / DB-25P...
Chassis Types 72x72 System Layout FIGURE 3-3. The system is capable of being loaded in a variety of ways as displayed in the above illustra- tion. From a video centered standpoint with the basic 121337-2 Video Crosspoint card installed, the left hand 6 slots can be loaded with SDI input cards, while the output side is loaded with SDI output cards, creating a generic 72x72 router.
Configuration and Operation 528 Module Array There are 22 slots containing the input modules within the router’s lower left and right sides. Input 0 is located at the bottom, while inputs 263 and 527 are at the top of the array. The 22 output slots are placed on the upper left and right, with outputs 0 and 264 located at the bottom, and outputs 263 and 527 positioned at the top (upper array).
Configuration and Operation Operation Alarm Indication The alarm LED located on the front of the UT-400 chassis is a universal indicator, and will illuminate when any alarm condition is sensed. Router Alarm Indication - 144, 288, 528, 72x72 and XL chassis FIGURE 3-8.
Operation Ethernet and RS-232 Connection The Ethernet and RS-232 connections are diagnostic. Crosspoint Cards Maintenance The UT-400 chassis contains two vertical crosspoint cards at the center of the chassis; the leftmost being the primary card, while the card on the right is redundant. Health SG Active Seat...
Configuration and Operation Input and Output Card Removal and Replacement To correctly remove and replace the individual input and output cards, always make sure the guides are located (inside the chassis) and the card slides all the way in before the ejector is locked in place.
Operation Air Dam Removal and Maintenance The Plexiglas air dam covers the fan controllers and monitor matrix cards. It is critical that these components receive proper cooling during normal operation. Make sure the air dam is removed only during periods of needed maintenance. Air Dam removal/replacement FIGURE 3-12.
Configuration and Operation Fan Service Alarm indicators on the crosspoint control card and power supplies will indicate any fan prob- lems. Individual fan modules can be lifted out by removing the two top screws that hold each in place. The new module is connected by simply aligning each and pushing it in place, then re- attaching the two screws.
The power supply interconnects with the router at the bottom of the assembly using a cabled interface. Using Utah Scientific’s pre-molded cable assembly, the ground signal and 48 volt conversion are carried to the UT-400 router. You will also see an additional cable assembly that is used for the micro controller inside the router that communicates with the alarm circuitry inside router.
Page 98
Configuration and Operation 3-16 Configuration and Operation...
Utah-400 Components CHAPTER 4 In This Chapter This chapter contains descriptions of each video and audio board type contained within the Utah-400; includ- ing Input, Output, Crosspoint and Interface (midplane) cards, and Power Supplies. Information regarding LED indications and alarms is also provided. Video Input 4-3 Video Output Boards 4-5 Multirate Fiber Input Card - 121234-1 4-7...
Page 100
Utah-400 Components UT400 72x72 Audio Crosspoint Card – 121338-1 4-78 UT400 Series 2 Advanced Input Card – 121395-1 4-82 UT400 Series 2 Advanced Output Card – 121396-1 4-88 UT400 Series 2 MOHO Video + MADI Output Card 4-95 UT400 Series 2 MIHI Video + MADI Input Card 4-101 UT400 Series 2 SMPTE 2022 Receiver (121400-1) 4-106 UT400 Series 2 SMPTE 2022 Transmitter (121401-1) 4-116 Rear Panel Considerations 4-125...
Video Input Video Input Video connectivity on the back of the router is handled through BNC or Fiber (optional). The primary connection to the outside environment occurs via the MX bus. There are two MX bus connectors, with the second one terminated if no connection is to be made to another router. Multi-rate Part # 121229-1, the Multi-rate SDI Input Card is designed to receive 12 individual single ended data streams at data rates between 3 Megabits per second to 3 Gigabits per second.
Page 102
Utah-400 Components • SMPTE-424 – 2.970 Gb/Sec- 100 Meter equalization capability The equalization stage also provides an indication that the equalizer has detected and is equalizing a signal. After the cable equalization stage, the signal enters a 1x4 fanout distribution stage. One of these four signals is driven to each individual crosspoint in the system.
Video Output Boards Video Output Boards The Utah-400’s Video Output cards receive signals from the Crosspoint card, where user specified switching takes place. All three card types (below) perform a signal presence detec- tion, while the SD and HD Output cards contain a re-clocking stage. Multi-rate Part # 121230-1, the Multi-rate Output card is used to drive single ended data signals out of the router.
Page 104
Utah-400 Components Once an input is selected, the output stage typically reclocks it, unless the signal is not a stan- dard SMPTE video frequency, and then the signal is bypassed. After the signal passes thru the reclocker stage, it is presented to the cable driver stage which generates signal centered around 0V with an amplitude of 800mV.
Multirate Fiber Input Card - 121234-1 Multirate Fiber Input Card - 121234-1 General This card is designed to receive 12 individual differential pair data streams at data rates between 3 megabits per second to 3 gigabits per second. This range allows the card to receive SMPTE SDI signals in the 259, 292, and 424 standards as well as non SMPTE stan- dards like DVB-ASI, AES-3 audio, and SMPTE-310 signals.
Page 106
Utah-400 Components There are three types of indicators on this card – Communications indicator – yellow. Illuminated when the card has been addressed by the Frame Controller Module. PS Fail LED. – Red – Illuminated when the 3.3V power supply falls out of + - 5% toler- ance.
Multirate Differential Pair Output Card – 121235-1 Multirate Differential Pair Output Card – 121235-1 General This card is used to drive differential pair signals out of the router to either Multi-Viewer sys- tems of Fiber Optic SFPs on the rear panel of the router. It has integral Clock and Data Recov- ery circuits that operate on standard SMPTE Video frequencies and work to remove jitter from the signal.
Page 108
Utah-400 Components Controls and Indicators This card has a two bank dipswitch with 16 total switches. 12 of them are used to force a bypass condition on each of the 12 individual outputs (Labeled as P1-P12). To force a bypass condition on an individual port, move the dipswitch towards the word ‘BYPASS’...
Fiber Interface - (Optional) Fiber Interface - (Optional) The MADI system contains the option of using BNC or fiber for the MADI signals. Instead of using BNCs for the physical connection, the system can utilize small modules that plug directly into the rear of the UT-400 chassis.
It has several communications busses, including the Utah Scientific MX-Bus which carries crosspoint switches and general status to and from the control system, a diagnostic serial port, and an Ethernet port for more detailed status and control.
Page 112
Utah-400 Components Controls and Indicators Controls for this card are concentrated on the router rear panel, in the Ethernet and Diagnostic serial ports. The only board level control is the Speaker Enable or Disable jumper, J3, that allows the audible alarm to be turned off. The audible alarm sounds any time that the SMPTE alarm is on.
Monitor Matrix Module Monitor Matrix Module Overview Part # 121227-1, the Monitor Matrix module is a standard system component that allows for all input and output signals of the router to be presented to a single port. It allows for two copper and one streaming Ethernet signal from the router core to be monitored at the users discre- tion.
Utah-400 Components Once the signal has been selected, the crosspoint passes that signal to a reclocker where the signal is re-timed. It is then presented to a Cable driver and BNC in the case of the two electri- cal signals, or to the baseband to streaming (optional) submodule board. This board is dis- cussed separately.
Video Crosspoint Board Video Crosspoint Board Overview Part # 121222-1, the Video Crosspoint Card is the central component in the UT400 528 rout- ing switcher. The same card can be placed in any one of the four crosspoint card slots in the system without changing any configuration settings on the card.
Utah-400 Components Circuit Description Each of the 576 input signals differential input signals is carried to a single crosspoint module, where it is resistively split and applied to two different 144x144 crosspoint chips. The outputs of the four crosspoint modules are passively combined, and coupled with the proper switching commands from the Frame Controller Module, allow for the large crosspoint array size.
Video Crosspoint Board Crosspoint LEDs (Active) The yellow LED pulses continuously when conditions are normal. A solid LED indicates the ‘standby’ crosspoint in a redundant system. Health FCM COMM XP COMM XP PS Seat Scangate Active Video Crosspoint LEDs FIGURE 4-9. 4-19 Utah 400 Series 2...
Utah-400 Components UT400 288x288 Crosspoint Card – 121248-1 General The 121248-1 288 Crosspoint Card is the central component in the 12 RU 288x288 UTAH400 router. It contains circuitry to control a 288x288 switching array based on commands from the MX-BUS, power supply circuitry and alarm reporting circuitry. It also has locations for two optional plug on modules, a TDM Audio Crosspoint and a H.264 streaming Monitor Matrix card.
UT400 288x288 Crosspoint Card – 121248-1 supply to its output for the rest of the board to use. From there, the supply is filtered by U4 and presented to U1, which converts it to 3.3VDC at 50 amps. This 3.3V supply is further regulated down by U24, U5 and U3 to 2.5V at 1.5A, 1.8V at 10A and 1.2V at 40A.
UT400 144x144 Crosspoint Card – 121242-1 UT400 144x144 Crosspoint Card – 121242-1 General The 121242-1 144 Crosspoint Card is the central component in the 7 RU 144x144 UTAH400 router. It contains circuitry to control a 144x144 switching array based on commands from the MX-BUS, power supply circuitry and alarm reporting circuitry.
Utah-400 Components The center front of the card contains all of the control circuitry on the board. This consists mainly of U9, an 16 bit DSP, and U11, an FPGA. U11 receives commands from the external MX-BUS and switches the crosspoint chip appropriately, while U9 monitors the health of the board and reports that back to the system level Frame Controller Module for reporting to the external world.
Page 123
UT400 144x144 Crosspoint Card – 121242-1 DS2 – Comms from FCM indicator – Yellow. DS4 - Comms to crosspoint chip – GREEN – On if OK. DS5 – Power Supply OK LED – GREEN. DS6 – Seating LED – Indicates that the crosspoint card is correctly installed in its slot when green.
Utah-400 Components UT400 Series 2 Dis-Embedding SDI Fiber Input Card – PN 121406-1 General This module serves as a standard multi rate SDI input card, with the added features of 12 sep- arate audio dis-embedder modules and a TDM multiplexor that feeds all of the dis-embedded audio to a central crosspoint.
UT400 Series 2 Dis-Embedding SDI Fiber Input Card – PN 121406-1 Circuit Description Video Path The video signals presented to this card come from an SFP module on the rear panel. This could be an optical to electrical SFP of one of the FLEX-IO modules that are available. It is equalized by a 1x2 fanout component.
Utah-400 Components Indicators DS11 – Green - ON indicates that the audio processor circuit is configured. DS17 – Green – ON indicates that the dis-embedder circuit is configured. DS1-10, 12, 13 – Green – Input Locked - Video Inputs 1-12 respectively. ON indicates that the dis-embedder circuit has locked to the incoming video.
UT400 Series 2 Dis-Embedding SDI Fiber Input Card – PN 121406-1 Rear Panel Connections The card uses the standard Fiber IO panel for series 2 routers. (121232-1) FIGURE 4-13. 4-29 Utah 400 Series 2...
Utah-400 Components UT400 Series 2 Dis-Embedding SDI Input Card – PN 121292-1 General This module serves as a standard multi rate SDI input card, with the added features of 12 separate audio dis-embedder modules and a TDM multiplexor that feeds all of the dis- embedded audio to a central crosspoint.
UT400 Series 2 Dis-Embedding SDI Input Card – PN 121292-1 Circuit Description Video Path The video signals presented to this card pass thru a cable equalization component prior to being used. This component is designed specifically to recover SMPTE SDI video signals after long runs of coaxial cable, and is rated in the amount of 1694A cable that it can equalize.
Utah-400 Components Controls And Indicators Controls SW1 Dipswitch – Used for card programming, no user adjustments. SW2 Reset switch - Pressing this switch performs a cold reset of the board. Indicators DS11 – Green - ON indicates that the audio processor circuit is configured. DS17 –...
UT400 Series 2 Dis-Embedding SDI Input Card – PN 121292-1 Supported Video Formats SMPTE259C – 525 Line and 625 Line SMPTE292 – 1080i 50/60 Hz, 720P 50/60 Hz SMPTE424 - 1080P 60/50/59.94 Level A only Rear Panel Connections All connections are via BNC connector. The card uses the standard BNC IO panel for series 2 routers.
Utah-400 Components UT400 Series 2 Embedding SDI Output Card – 121293-1/2 General This card serves the same purpose as the standard SDI Output card with the added features of being able to either; Selectively replace the embedded audio with audio signals delivered to this card from a TDM crosspoint, or Shuffle the embedded audio within one video channel to the users requirements.
UT400 Series 2 Embedding SDI Output Card – 121293-1/2 All portions of the video path are capable of passing SMPTE 259 and 292 (SMPTE 424 3G is NOT supported). Because this path is specific to SMPTE SDI signals, no other signal types can be passed through this card.
Utah-400 Components Power Supplies The 121293-1 card receives -48V from the system backplanes and generates 3.3V, 2.5V, 1.8V, and 1.2 V. All voltages are monitored for health and the failure of one of them will result in a dark ‘Power Good’ LED (DS14). Controls And Indicators Controls SW1 Dipswitch –...
UT400 Series 2 Embedding SDI Output Card – 121293-1/2 Specifications Power Consumption 22 Watts (.45A of -48V) Output Return Loss Less than -15 dB to 1.5 Ghz, Less than -10 dB to 3 Ghz. Output Amplitude 800mV +- 10% Supported Video Formats SMPTE259C –...
Utah-400 Components Rear Panel Connections All connections are via BNC connector. The card uses the standard BNC IO panel for Series 2 routers. (121226-1) FIGURE 4-17. 4-38 Utah-400 Components...
UT400 Series 2 Embedding SDI Fiber Output Card – 121405-1 UT400 Series 2 Embedding SDI Fiber Output Card – 121405-1 General This card serves the same purpose as the standard SDI Output card with the added features of being able to either; Selectively replace the embedded audio with audio signals delivered to this card from a TDM crosspoint, or Shuffle the embedded audio within one video channel to the users requirements.
Utah-400 Components All portions of the video path are capable of passing SMPTE 259 and 292 (SMPTE 424 is not supported). Because this path is specific to SMPTE SDI signals, no other signal types can be passed thru this card. Circuit Description Video Path The video signals presented to this card originate at the video crosspoint card in the system.
UT400 Series 2 Embedding SDI Fiber Output Card – 121405-1 Power Supplies The 121405-1 card receives -48V from the system backplanes and generates 3.3V, 2.5V, 1.8V, and 1.2 V. All voltages are monitored for health and the failure of one of them will result in a dark ‘Power Good’...
Utah-400 Components Specifications Power Consumption 30 Watts (.62A of -48V) with 6 Digital Dual Rx Digital Optical Receiver installed in rear panel • 800mV +- 10% • Supported Video Formats • SMPTE259C – 525 Line and 625 Line • SMPTE292 – 1080i 50/60 Hz, 720P 50/60 Hz •...
UT400 Series 2 Embedding SDI Fiber Output Card – 121405-1 Rear Panel Connections The card uses the standard Fiber IO panel for series 2 routers. (121232-1) FIGURE 4-19. 4-43 Utah 400 Series 2...
Utah-400 Components UT400 Series 2 Triple Port MADI IO Card – 121320-1/2 General This card is used to either receive (121320-1) or transmit (121320-2) 3 unique AES-10 (MADI) multichannel audio signals containing 64 channel of audio each. It is used to interconnect devices like Audio Consoles to the TDM audio matrix, or to act as a concentrator where Utah Scientific MADI transceiver systems interconnect.
UT400 Series 2 Triple Port MADI IO Card – 121320-1/2 Once the fiber type is determined, each of the three MADI receive circuits locks to and recov- ers the 64 audio signals from the MADI stream. Status of the incoming streams is indicated on LED’s on the board front edge.
Page 144
Utah-400 Components DIP2 – Not used for an output card. For an input card, this controls the source for the first MADI port. Move the switch to the ON position for a copper input, or the other direction for a fiber input DIP3 –...
UT400 Series 2 Triple Port MADI IO Card – 121320-1/2 Specifications Power Consumption 8 Watts (.12A of -48V) Output Return Loss Less than -15 dB to 125MHz. Output Amplitude 800mV +- 10% Rear Panel Connections Both the 121320-1 and -2 cards use the 121324-1 3X MADI rear panel for connectivity to external signals.
UT400 Series 2 12 Port TDM Crosspoint Submodule – 121295-1 UT400 Series 2 12 Port TDM Crosspoint Submodule – 121295-1 General This submodule creates a 2304x2304 monaural audio TDM matrix. Its interfaces are 12 TDM audio input streams, each carrying 192 channels of audio, 12 TDM audio output streams car- rying 192 channels of audio, and a 20 bit control bus to control which inputs are switched to which outputs.
Page 148
Utah-400 Components This deserialized data structure is then presented to an FPGA that is programmed to instanti- ate 16 different 144x144 crosspoints, each active at the proper moment in time to implement their section of the 2304 x2304 matrix. The result of the crosspoint action is 12 unique instances of 16 data bits and a clock that make up the proper signaling for each of 12 output card slots.
UT400 Series 2 528 Frame TDM Crosspoint Carrier – 121323-1 UT400 Series 2 528 Frame TDM Crosspoint Carrier – 121323-1 General This assembly occupies a crosspoint slot in a Series 2 528 style router. It consists of a carrier for four of the 121295-1 TDM Crosspoint submodules, and works along side video crosspoint cars in the 528 system to create a combined TDM audio / Video switching matrix.
Utah-400 Components Controls And Indicators SW2 is a reset switch which will perform a restart of all logic on the board. SW1 is used for programming functions. DS10 – FPGA Load – Green - Illuminated when the FPGA is configured. If it is off, the card is not functional.
UT4-528 Standard Digital Audio Input with TDM Board – 121288-1 UT4-528 Standard Digital Audio Input with TDM Board – 121288-1 General The Standard Digital Audio Input with TDM Board (121288-1) receives 12 AES3 audio signals. These signals are received and individually analyzed to see if they qualify for synchronization to the digital audio reference (DARS).
Utah-400 Components and the other method includes a single TDM stream that carries all 12 inputs information. The system xpoint will determine whether it uses the TDM or Non-TDM inputs. AES3 inputs must be synchronous to the DARS input in order for the TDM stream to accurately represent the input signals.
UT4-528 Standard Digital Audio Output with TDM Board – 121289-1 UT4-528 Standard Digital Audio Output with TDM Board – 121289-1 General The Standard Digital Audio Output Board with TDM (121289-1) receives 12 AES3 digital audio signals or receives a single TDM stream from the appropriate xpoint boards. These signals are individually driven to the monitor matrix module and router output panels.
Utah-400 Components The FPGA determines whether to route the TDM or Non-TDM signals to the output drivers; there, it is converted into two differential pairs of AES3 audio. One pair is passed to the moni- tor matrix circuit where one of the twelve outputs is routed to the monitor matrix output. The second pair is driven to the output rear panel.
Page 159
UT4-528 Standard Digital Audio Output with TDM Board – 121289-1 Rear Panel Connections There are currently two rear panels available for this audio interface. UT4-S2 DA Balanced Output Rear Panel (121237-2 -> D-SUB 37) FIGURE 4-28. 4-61 Utah 400 Series 2...
Utah-400 Components UT4-528 Digital Audio Digital to Analog (DAC) Output with TDM Board – 121326-1 General The Digital Audio DAC Output Board with TDM (121326-1) receives 12 AES3 digital audio sig- nals or receives a single TDM stream from the appropriate xpoint board. These signals are individually distributed to the digital to analog converter outputs and the monitor matrix module.
UT4-528 Digital Audio Digital to Analog (DAC) Output with TDM Board – 121326-1 Controls and Indicators There are no controls on this card, other than P1. This is a standard UT400 diagnostic port that provides detailed operational status and control for this card. There are four types of LED indicators present on the front edge on this card PWR OK ->...
Page 166
Utah-400 Components This board will drive high impedance loads (e.g. 100k ohm – no jumper). In instances when a 600 ohm load needs to be driven, this board is supplied with jumpers on each channel that when installed provide the appropriate level adjustment. Rear Panel Layout (2xD-Sub 37).
UT4-528 Digital Audio Digital to Analog (DAC) Output with TDM Board – 121326-1 Specifications Power Consumption – 15 Watts (.3A of -48V) • Analog 2xD-SUB 37 Cable Interface – 12 pair/24 AWG/Stranded (Recommended – Belden • 9993 or better.) Audio Format – Professional Audio,48 kHz, 24 Bit, AES / EBU; AES-3 •...
Utah-400 Components Rear Panel Connections UT4-S2 DA Analog Rear Panel (121327-1 -> 2xD-SUB 37) • Audio Connectors • Digital Audio Breakout Panel (140023-0004) – This is an optional I/O interface converting d- • subs to terminal blocks. See Appendix C for more information. 4-70 Utah-400 Components...
Utah-400 Components UT4-528 Digital Audio Analog to Digital (ADC) Input with TDM Board – 121325-1 General The Digital Audio ADC Input with TDM Board (121325-1) receives 12 L/R analog signals. These signals are received and individually converted into AES3 signals that are in aligned to the digital audio reference (DARS).
UT4-528 Digital Audio Analog to Digital (ADC) Input with TDM Board – 121325-1 Controls and Indicators There are no controls on this card, other than P1. This is a standard UT400 diagnostic port that provides detailed operational status and control for this card. There are four types of LED indicators present on the front edge on this card COMMS ->...
Utah-400 Components IO = Input or Output use A = Positive B = Negative C = shield/ground 0 - 11 = Input or output physical number. Note: 0 - 11 represents the first card slot. In this sequence, the next card slot is 12 - 23, the 3rd slot is 24 - 35, etc.
UT4-528 Digital Audio Analog to Digital (ADC) Input with TDM Board – 121325-1 Rear Panel Connections UT4-S2 DA Analog Rear Panel (121327-1 -> 2xD-SUB 37) • Audio Connectors • Digital Audio Breakout Panel (140023-0004) – This is an optional I/O interface converting •...
Utah-400 Components 72x72 AV Router Components Crosspoint Card - 121337-1 General The 72x72 Video Crosspoint card is used exclusively in the 4U 72x72 video routing switcher chassis in the UTAH-400 Series 2 routing switcher family. This frame provides a compact housing for any of the IO cards that comprise the UT400 Series 2 line.
Page 175
72x72 AV Router Components Circuit Description The heart of the card is the 3Gb/Sec crosspoint chip, U18. It interconnects to the high speed edge connectors 144 different locations. 120 of these signal interconnects go to both an input and an output circuit on the crosspoint, allowing for the rectangular loading of the cards. This crosspoint is controlled by the FPGA U20 based on commands coming in from the MX bus or Ethernet.
Utah-400 Components UT400 72x72 Audio Crosspoint Card – 121338-1 General This assembly is an optional addition to the UT400 72x72 4U router frame. When it is added, it provides the router with an additional 2304x2304 TDM Audio router matrix that can be used in conjunction with any TDM audio enabled IO card, such as embedders, disembedders, MADI, or AES cards.
Page 177
UT400 72x72 Audio Crosspoint Card – 121338-1 FPGA U9 orchestrates the actual switching of the crosspoint submodule based on commands delivered to it via the MX Bus. Controls And Indicators Controls - Dipswitch SW2 – DIP2 – On = MADI Port 1 copper, off = MADI port 1 fiber. DIP3 –...
Utah-400 Components 121332-1 SDI Module General The SDI I/O module is a general purpose 4 in x 4 out SD/HD/3G Video processing module. It is used on various carrier cards to perform video processing functions. Circuit Description Power Supplies This module receives 3.3V from its carrier card on J1, and regulates it to the following voltages for use in the FPGA –...
Page 179
UT400 72x72 Audio Crosspoint Card – 121338-1 Indicators DS6 – On for power supply OK. DS1 – On for configuration done. Note that the following definition is for UDS CQ module status only - DS5 – Reference channel video locked when on. DS2 –...
Utah-400 Components UT400 Series 2 Advanced Input Card – 121395-1 General The Advanced Input Card is a multifunction, (up to) 12 port SDI input card that installs in any UT400 Series 2 router. In addition to the standard features of Series 2 input card, this performs dis-embedding, frame sync, audio shuffling and video proc amp controls if it is purchased with the SDI I/O Processing modules.
UT400 Series 2 Advanced Input Card – 121395-1 Physical Description FIGURE 4-37. The picture above details the major components of the assembly. Replacement of the individ- ual IO modules is accomplished by removing six screws that hold the heatsink to the board from the backside, and then each module is simply pulled out of its mating connectors.
Utah-400 Components Audio path The Advanced Input Card has an onboard audio processor that receives 32 AES signals that are generated by each SDI I/O module from the dis-embedded audio signals present in the incoming video streams. These audio signals are aligned to the local audio clocks after they are dis-embedded in the case of an asynchronous input signal.
Page 183
UT400 Series 2 Advanced Input Card – 121395-1 Indicators DS1-DS12 – Green – Input Locked - Video channels 1-12 respectively. ON indicates that the video circuit has locked to the incoming video. DS19 – Green - ON indicates that the audio processor circuit is configured. DS17 –...
Serial Diagnostic Port Commands This serial port is primarily used by Utah Scientific Service personnel to determine the state of the card during troubleshooting. This port is RS-232, 115.2KBaud, 8 data bits, 1 stop bit and no parity.
UT400 Series 2 Advanced Input Card – 121395-1 Specifications Each menu element is invoked by pressing the letter indicated by the menu. Power Consumption 30 Watts Input Return Loss Less than -15 dB to 1.5 Ghz, Less than -10 dB to 3 Ghz. Input Amplitude 800mV +- 10% Supported Video Formats...
Utah-400 Components UT400 Series 2 Advanced Output Card – 121396-1 General The Advanced Output Card is a multifunction, (up to) 12 port SDI card that installs in any UT400 Series 2 router. In addition to the standard features of Series 2 output card, this card can be purchased in two versions;...
Page 187
UT400 Series 2 Advanced Output Card – 121396-1 Physical Description FIGURE 4-38. The picture above details the major components of the assembly. Replacement of the individ- ual IO modules is accomplished by removing six screws that hold the heatsink to the board from the backside, and then each module is simply pulled out of its mating connectors.
Utah-400 Components Audio path The Advanced Output Card has an onboard audio processor that receives a TDM stream con- taining up to 192 channels of audio and timing information from the system audio crosspoint. These signals are turned into 96 AES pairs, 32 of which are presented to each SDI I/O Mod- ule.
Page 189
UT400 Series 2 Advanced Output Card – 121396-1 Dip8 – ON places Scangate chain in Bypass mode, OFF is normal operation. • Normal configuration is DIP1 ON, all others OFF. • SW2 Reset switch - Pressing this switch performs a cold reset of the board. Indicators DS1-DS12 –...
Page 190
Utah-400 Components Fade the embedded audio signals within it down to a mute level over a 1024 sample • period. Wait until the next video frame is acquired. • Begin outputting that new video signal. • Fade the audio signals up to unity gain. •...
Page 191
UT400 Series 2 Advanced Output Card – 121396-1 Serial Diagnostic Port Commands This serial port is primarily used by Utah Scientific Service personnel to determine the state of the card during troubleshooting. This port is RS-232, 115.2KBaud, 8 data bits, 1 stop bit and no parity.
Page 192
Utah-400 Components Specifications Power Consumption 30 Watts Output Return Loss Less than -15 dB to 1.5 Ghz, Less than -10 dB to 3 Ghz. Output Amplitude 800mV +- 10% Supported Video Formats SMPTE259C – 525 Line and 625 Line SMPTE292 – 1080i 50/60 Hz, 720P 50/60 Hz SMPTE424 –...
UT400 Series 2 MOHO Video + MADI Output Card UT400 Series 2 MOHO Video + MADI Output Card General The MOHO Video + MADI output card is used in any UT400 Series 2 router as an output device to generate 12 video signals and three MADI signals from the video and TDM audio crosspoint cores.It occupies a single slot and utilizes HD-BNC connectors to allow for the 15 rear panel connections it requires.
Utah-400 Components Circuit Description Power Supplies The board receives two -48V feeds from the router power distribution system and utilizes the one that provides more voltage. From this -48V rail a 3.3V supply (u29) 1.2V supply (U1) 2.5V supply (U27) and 1.8V supply (U26). These voltages are required by the various components on the board.
Page 195
UT400 Series 2 MOHO Video + MADI Output Card Additional Functions • Monitors board level power consumption and temperature and relates that to the Router Control System. • Responds to commands received from the router control system to select primary and redundant crosspoints, change monitor matrix selection, enable and disable out- puts, and others.
Page 196
Utah-400 Components Specifications Power Consumption 8 Watts (.12A of -48V) MADI Conforms to AES-10-2008 Return Loss - Less than -15 dB to 125MHz. Output Amplitude – 600mV Video Confirms to SMPTE 259, 292 and 424 standards Return Loss – Less than -15 dB to 1.5GHz, less than -10 dB to 3 GHz. Output Amplitude - 800mV +- 10%.
Page 197
UT400 Series 2 MOHO Video + MADI Output Card Rear Panel Connections This card uses the 121452-1 16 HD-BNC Rear Panel. MADI and video ports are labeled on this rear panel. The TDM port is not used on this assembly. FIGURE 4-40.
Page 198
Utah-400 Components Below is the menu structure reported when the user presses the space bar. To invoke a menu item the first letter of that item is pressed. ---------------- S-STATUS R-Read Memory I-Inc AES Monitor T-Toggle in mux V-Versions ---------------- Status –...
Page 199
UT400 Series 2 MIHI Video + MADI Input Card UT400 Series 2 MIHI Video + MADI Input Card General The MIHI Video + MADI input card is used in any UT400 Series 2 router as an input device to receive 12 video signals and three MADI signals and present them to the video and TDM audio crosspoint cores.
Page 200
Utah-400 Components edge to light. From the output of the cable equalizers, the signals go to one of two 6x24 cros- spoint chips, U234 and U28, which are used to drive four copies of each signal to the cros- spoint cards in the router. MADI Circuitry Three MADI inputs are presented to this card and received by three M21564 equalizing receiv- ers.
Page 201
UT400 Series 2 MIHI Video + MADI Input Card Specifications Power Consumption 8 Watts (.12A of -48V) MADI Conforms to AES-10-2008 Return Loss - Less than -15 dB to 125MHz. Video Confirms to SMPTE 259, 292 and 424 standards Return Loss – Less than -15 dB to 1.5GHz, less than -10 dB to 3 GHz.
Page 202
Utah-400 Components Serial Diagnostic Port Commands This diagnostic port utilizes the 140000-9 UT400 serial adapter. The adapter should be placed on the DB9 RS-232 connector of a standard computer, and then a length of straight thru CAT5 cable connected between the other end of the adapter and P1 on the board. Terminal emulators such as TeraTerm are used to communicate with the board.
Page 204
Utah-400 Components UT400 Series 2 SMPTE 2022 Receiver (121400-1) General This Series 2 router input module, USI PN 121400-1, is a device that is used to de-packetize SMPTE 2022-5/6 compliant Ethernet signals into SDI video. It contains two identical circuits that each receive a 10GBASE-X Ethernet link and convert them into SDI signals.
Page 205
UT400 Series 2 SMPTE 2022 Receiver (121400-1) The other supplies on the board are – - 1.0VA – U2 – 2022 Proc A core - 1.0VB – U3 – 2022 Proc B core - 1.5VA – U33 – 2022 Proc A DDR - 1.5VB –...
Page 206
Utah-400 Components SMPTE 2022 processor #2. U9 and its associated components make up the second SMPTE 2022 receiver. Fanout Components U28 and U39 are 8x24 crosspoints that are used as 6 1x4 fanout buffers for the 12 video sig- nals leaving this card. A unique copy of each input signal is sent to each of the four possible crosspoint cards this card needs to support.
Page 207
UT400 Series 2 SMPTE 2022 Receiver (121400-1) P1 is a quad purpose port that is used for standard UT400 diagnostic functions, Ethernet Control Circuit and SMPTE 2022 transmit configuration for both channels. The terminal interface section of this guide contains more information on using diagnostic/configuration port.
Page 208
Utah-400 Components Terminal Interface The P1 serial port is an RS-232 port used to diagnose or configure the card. There are four active devices on the board that communicate out of this port. The user switches between devices by issuing special keyboard commands. P1 is designed to connect via a straight thru CAT5 or 6 cable to the standard UT400 serial adapter, 140000-8, and then to an RS-232 port on a PC.
Page 209
UT400 Series 2 SMPTE 2022 Receiver (121400-1) Local Monitoring Processor Menu ---------------- S-STATUS R-Read Memory P-Genlock Read D-Dump I2C Regs G-Read Scangate ---------------- These menu items are used with support from USI service personnel to diagnose performance of the card. K70 Network Processor Menu –...
Page 210
Utah-400 Components 3 = 10G MAC Fault Inhibit On/Off 7 = USI Menu r = Reset General Space Stat Counters s = Configure Channel p = Probe Current Settings ? = help ------------------ Main Menu Descriptions 1 – Reset Core. Resets all processing functions. 2 –...
Page 211
UT400 Series 2 SMPTE 2022 Receiver (121400-1) > Select 1-6 to select the channel number to be configured or monitored. Channel Specific Menu ----------------------- -- Select Option -- ----------------------- 1 = Channel Init 2 = Channel Enable/Disable 3 = Match VLAN On/Off 4 = Timestamp Bypass On/Off 5 = Channel Filter Change 6 = Dest IP Addr...
Page 212
Utah-400 Components 6 = Change Dest IP Addr – Sets the destination IP Address for this channel filter. 7 = Change SRC IP Addr – Sets the source IP Address for this channel filter. 8 = Set Dest UDP Port – Sets the destination UDP for this channel filter. 9 = Set Source UDP Port –...
Page 213
UT400 Series 2 SMPTE 2022 Receiver (121400-1) Src IP: Off VLAN: Off Vid Locked: Locked SDI Frame Synced: Synced Vid Source Format: 0x2017100 Hitless Protection: Not Protected RTP TS Difference: 21075 ms FEC Size: 00x00 FEC Locked: 0 FEC Level: A Specifications Power Consumption 30 Watts...
Page 214
Utah-400 Components UT400 Series 2 SMPTE 2022 Transmitter (121401-1) General This Series 2 router output module, USI PN 121401-1, is a device that is used to packetize SDI video into SMPTE 2022-5/6 compliant Ethernet signals. It contains two identical circuits that each receive 6 SDI signals and multiplex them into a 10GBASE-X SFP+ based Ethernet link.
Page 215
UT400 Series 2 SMPTE 2022 Transmitter (121401-1) The terminal interface section below details the default parameters of the card, and how the parameters can be changed to customize the output to particular network requirements. A Genlock circuit on the card receives reference signals from the Frame Controller module within the frame and uses those signals to create clocks that are aligned to a house reference.
Page 216
Utah-400 Components Communications indicator – yellow. Illuminated when the card has been addressed by the Frame Controller Module. PS Fail Led. – Red – Illuminated when one of the board power supplies is out of +- 5% tolerance. Reclocker Locked LED’s (12), Green. One of these LEDS is present on the front edge of the card for each signal presented to this card.
Page 217
UT400 Series 2 SMPTE 2022 Transmitter (121401-1) Monitor Port. This can optionally be fitted with a FlexIO SFP to SDI module for SDI monitoring of the signals being packetized on each Ethernet port. FIGURE 4-46. Terminal Interface The P1 serial port is an RS-232 port used to diagnose or configure the card. There are four active devices on the board that communicate out of this port.
Page 218
Utah-400 Components - 2022 Port #2 Processor. Console for SMPTE stream corresponding to SDI ports 6-11. To switch between the 4 devices, hold down the CTRL key and press ‘p’. Upon each press of this key combination the terminal will report the device connected to the serial port – “UBlaze Debug”...
Page 219
UT400 Series 2 SMPTE 2022 Transmitter (121401-1) There are two main sections to this menu; the first to configure items common to all streams, and a channel specific menu to configure items that are specific to each video stream. A ‘?’ displays the selections in all menus. Main Menu ----------------------- -- VoIP TX Main Menu --...
Page 220
Utah-400 Components Select Channel Menu ----------------------- -- Select Channel -- ----------------------- Primary Channels 1 = Channel 1 2 = Channel 2 3 = Channel 3 4 = Channel 4 5 = Channel 5 6 = Channel 6 ------------------ > Select 1-6 to select the channel number to be configured or monitored. Channel Specific Menu ----------------------- -- Select Option --...
Page 221
UT400 Series 2 SMPTE 2022 Transmitter (121401-1) p = Probe Status m = Main Menu s = Channel Select ------------------ > - 1 = Channel Init – Re-initializes settings in the currently selected channel. 2 = Channel Enable/Disable – Enables or disables the current channel (toggle) 3 = Change Host IP Address –...
Page 222
Utah-400 Components Dest MAC Address: 08-00-5B-01-00-10 IP Version: IPv4 TTL: 128 TOS: 100 VLAN: Disabled VLAN Tag: 0xAB00 Source IP Addr: 192.168.5.11 Dest IP Addr: 192.168.5.10 Source Port: 0x2710 Dest Port: 0x2710 Time Stamp: Enabled Video Locked: Locked SDI Standard: HD-SDI SSRC: 0x12345600 FEC Size: 77x77 FEC On/Off: Off...
Page 223
Rear Panel Considerations Rear Panel Considerations VIDEO VIDEO GPIO REF A REF B -48V LEVEL OFFSET E-NET SERIAL MX-BUSS 1 2 4 8 10 Series 2 144x, 288x, 528x, and 1056x FIGURE 4-47. MX Bus This is the control bus between the UT-400 and an SC-3/4 controller. Each chassis contains two connectors, fed through either side, then distributed to the next piece of equipment from either side.
Page 224
The power supply interconnects with the router at the bottom of the assembly using a cabled interface. Using Utah Scientific’s pre-molded cable assembly, the ground signal and 48 volt conversion are carried to the UT-400 router. You will also see an additional cable assembly that is used for the micro controller inside the router that communicates with the alarm circuitry inside router.
Page 225
Power supplies The unique cable assembly allows the micro controller to efficiently communicate, sending accurate alarm signals any time an issue arises. Cable Assembly FIGURE 4-49. Router Power supplies The Utah-400’s power supplies are standard, with AC input, alarm monitoring circuitry, and DC output going to the system.
Page 226
Utah-400 Components LED Indications If no alarms are present, the ALM LED will be off while the yellow LEDs (AC OK and DC OK) will be illuminated. Error Indication (Red) Power OK Indications (Yellow) Power Supply FIGURE 4-50. Individual supply alarms will be indicated with the corresponding red LED. Specific adjust- ments are available for individual voltage indications within this guide’s Troubleshooting sec- tion.
Page 227
Power supplies 4-129 Utah 400 Series 2...
Page 229
This chapter is designed to help the user diagnose problems on the Utah- 400 Routers to the subsystem level. There are no repairable boards in the Utah-400 system, contact Utah Scientific Technical Services at 800-447- 7204 regarding any problems you may be having. Should any printed circuit boards need repair, Technical Services can advise you on shipping and on the repair process.
Troubleshooting Subsystem Level Troubleshooting A routing system is typically comprised of several subsystems: Video System • Audio System • Control System • Power System • Fault finding is simplified by first isolating the problem to one of these subsystems. For example, if the audio-sys- tem is functioning normally, but there are problems with video, the problem is probably confined to the video sys- tem.
Page 231
Main Troubleshooting Chart Main Troubleshooting Table TABLE 2-1. Subsystem Table Reference Problem Video Audio Power Control No Video or Audio outputs Video and Audio outputs are present but neither can 1,2,6 be switched No Video output, Audio functions normally 1,2,3 No Audio output, Video functions normally 1,2,3 Video switches normally but audio does not switch...
Troubleshooting Video Subsystem Troubleshooting Table Use the following table to troubleshoot specific video subsystem problems. The numbers in the left-hand column indicate specific references from the Video column in the Main Troubleshooting Table. Video Subsystem Troubleshooting Table TABLE 2-2. Problem Check No video output Control cable connected, or internal con-...
Audio Subsystem Troubleshooting Table Audio Subsystem Troubleshooting Table Use the following table to troubleshoot specific audio subsystem problems. The numbers in the left-hand column indicate specific references from the Audio column in the Main Troubleshooting Table. Audio Subsystem Troubleshooting Table TABLE 2-3.
Troubleshooting Power Subsystem Troubleshooting Table Use the following table to troubleshoot specific power subsystem problems. The numbers in the left-hand column indicate specific references from the Power column in the Main Troubleshooting Table. Power Subsystem Troubleshooting Table TABLE 2-4. Problem Check No video output Power applied to video frame?
Control Subsystem Troubleshooting Table Control Subsystem Troubleshooting Table Use the following table to troubleshoot specific control subsystem problems. The numbers in the left-hand column indicate specific references from the Control column in the Main Troubleshooting Table. Control Subsystem Troubleshooting Table TABLE 2-5.
Troubleshooting System Controller Alarms System controller alarms are indicated by LEDs on the front of each controller card. The active LED should be lit on one of the controller cards. If only one controller is present • (non redundant system), the active LED should be illuminated. Please note the following additional points regarding the controller: The heartbeat LED (DS6) indicates that the processor is communicating with the vital parts •...
Control Panel Troubleshooting Control Panel Troubleshooting If your control panel does not control any of the matrix, check that power is applied to the panel. UNET Panels Panels communicate to the controller by a special network known as U-Net. Panels are •...
Page 239
Specifications APPENDIX A In this Appendix This appendix provides detailed lists of all system audio, video, control, physical, power and regulatory specifications. Power ..................A-2 Input Power and DC Power Specifications ......A-2 Digital Video ................A-3 Reference ................A-5 Control ...................
Specifications Power The following table lists power specifications: Input Power and DC Power Specifications Input and DC specifications TABLE A-1. Parameter Specification (AC Supply) Input Power Consumption Voltage 1250 Watts per module, max Voltage 90 - 240 Volts AC, universal power supply Frequency 50 - 60 Hertz...
Digital Video Digital Video The following table lists the system digital video specifications. Digital Video Specifications TABLE A-2. Jitter Conforms to SMPTE 259, 292, 424 Reclocked Data Rates 270, 1485, 2970, Mb/Sec Input Return Loss < -15 dB to 1.5 Ghz, -10dB to 3Ghz Output Return Loss <...
Reference Reference The table below lists reference specifications Reference Specifications TABLE A-4. Parameter Specification Audio One 75Ohm terminated AES sync Video 1 NTSC or PAL black burst, or Tri-Level Sync Video 2 NTSC or PAL black burst, or Tri-Level Sync Specifications...
Physical Physical The following table lists physical specifications: Physical Specifications TABLE A-7. Parameter Specification Width EIA – RS-310 – D 92 19” rack mount standard Height 20 rack units for the 528 (300 lbs.), and 40 rack units for the 400 XL (600 lbs.) Depth 19 inches, 483 mm maximum...
Connector Suppliers and USI Part Numbers Connector Suppliers and USI Part Numbers The following table lists connector supplies and Utah Scientific Part Numbers where applicable: Not all connectors are used on the Utah-400 but are supplied as a courtesy. Connector Suppliers TABLE A-9.
Page 249
The Debug Port APPENDIX B Diagnostic Port Usage Every device within the Series 2 router that has an on board microprocessor has an RS-232 DTE port that can be used configure, gather status, or perform updates to the card. This section describes the commands and status information generated by these ports, with each device or group of similar devices having its own section.
Page 250
It is recommended that the ‘TeraTerm’ shareware program, which is included in all Utah Scien- tific System CD’s, be used when communicating to the router. It is also recommended that a PERMANENT connection between the Utah Scientific control computer and the router FCM be put in place for diagnostics.
Page 253
In addition to the commands in the menu, there are several hidden commands that can be useful. ‘A’ command – Display information relating to the Audio Subrouter, if present ‘P’ command – Set system Alarm GPI Polarity. ‘E’ command – Display the number of times each card has been reset ‘C’...
Page 254
The Debug Port Crosspoint cards – Utah-400 Series...
Page 255
121222-1 Crosspoint card Diagnostic Interface This serial port connection returns data for just the crosspoint card. It is useful to diagnose error codes reported by the crosspoint, and to determine status. Pressing the space bar will show you a list of available commands. Below is a description of the status reported. The text in italics is an explanation.
Page 258
The Debug Port 121323-1 TDM Audio Crosspoint Carrier for 528 Systems Diagnostic Interface This serial port connection returns data for just the crosspoint card. It is useful to diagnose error codes reported by the crosspoint, and to determine status. Pressing the space bar will show you a list of available commands.
Page 259
This ‘R’ command shows crosspoint status of all possible 2304 outputs, segregated by TDM bus. Only a portion is shown here for brevity. B-11 The Debug Port...
Page 260
The Debug Port 121248-1 Crosspoint card Diagnostic Interface This serial port connection returns data for just the crosspoint card. It is useful to diagnose error codes reported by the crosspoint, and to determine status. Pressing the space bar will show you a list of available commands. Below is a description of the status reported. The text in italics is an explanation.
Page 263
1242-1 Crosspoint Card Diagnostic Information This serial port connection returns data for just the crosspoint card. It is useful to diagnose error codes reported by the crosspoint, and to determine status. Pressing the space bar will show you a list of available commands. Below is a description of the status reported. The text in italics is an explanation.
Page 264
The Debug Port SDI IO Card Diagnostic Information This serial port connection returns data for just the IO card. It is useful to diagnose error codes reported by the card, and to determine status. Pressing the space bar will show you a list of available commands.
Page 266
The Debug Port AES IO Card Diagnostic Information B-18 Utah-400 Series...
Page 267
121320-1/2 Triple MADI IO card Diagnostic Information This serial port connection returns data for just the IO card. It is useful to diagnose error codes reported by the card, and to determine status. Pressing the space bar will show you a list of available commands.
Page 268
The Debug Port Embedding SDI Output Card (121293-1/2) Diagnostic Information This serial port connection returns data for just the IO card. It is useful to diagnose error codes reported by the card, and to determine status. Pressing the space bar will show you a list of available commands.
Page 269
Dis Embedding SDI Input Card (121292-1) Diagnostic Information This serial port connection returns data for just the IO card. It is useful to diagnose error codes reported by the card, and to determine status. Pressing the space bar will show you a list of available commands.
Page 270
The Debug Port 121337-1 72x72 Crosspoint card Diagnostic Interface This serial port connection returns data for just the crosspoint card. It is useful to diagnose error codes reported by the crosspoint, and to determine status. Pressing the space bar will show you a list of available commands.
Page 272
The Debug Port Audio Crosspoint Status - Semaphore = 136C (Semaphore from AXPT) Lock Stat = 41 (Which cards are feeding AXPT) Version = 500 (Version of AXPT Firmware) ACLK Stat = 3 (Audio Clock Status) Out 0 = FFF (Inputs for first 12 outputs) Out 1 = FFF Out 2...
Page 275
The UT4-528 Digital Audio APPENDIX C Breakout Panel This Appendix contains the following: Scope ....................C-2 The AES Breakout Panel Kit ............C-2 Description of the AES Breakout Panel .......... C-3 Analog Rear Panels Connected to Breakout Panel .... C-4 AES Balanced Rear Panels Connected to Breakout Panel Installation of the AES Breakout Panel ...........
The customer is responsible for wiring the Sources and Destinations to each panel. The AES Breakout Panel Kit Each breakout panel kit ordered from Utah Scientific (part # 140023-0004) is shipped with the following items: (1) Breakout Panel •...
Description of the AES Breakout Panel Description of the AES Breakout Panel The AES Breakout Panel is designed to simplify the installation of the UT4-528 Balanced Dig- ital Audio Routing System. The breakout cables are pre-wired to connect directly between the UT4-528 Balanced Digital Audio backplane and the breakout panel.
Installation of the AES Breakout Panel Installation of the AES Breakout Panel To install the Breakout Panel: Install the BOP at the desired location on the rack frame. (Within three feet of the Utah- 400 Digital Audio Backplane.) Install the cables from the UT4-528 input or output to the matching BOP backplane input or output.
Page 282
The UT4-528 Digital Audio Breakout Panel Note: Wiring is the same for each sequential block following 0 - 7. Example; 8 - 15, 16 - 23, etc. Failure to follow these steps will result in loose or no connections, and the wire may fall out of the hole.
Label Instructions for the Utah-400 Breakout Panel Label Instructions for the Utah-400 Breakout Panel Scope This document applies to the label installation on the Utah-400 Breakout Panel. Labels included in this kit include the 54450-1035 (Input Labels 000 through 287) and 54450-1036 (Output Labels 000 through 287).
Page 284
The UT4-528 Digital Audio Breakout Panel The illustration below shows the proper application of the labels on the breakout panel. Apply New Label over existing panel silkscreen Inputs 000 - 007 0 - 7 Inputs 8 - 15 008 - 015 Front Section View of the Utah-400 Breakout Panel Apply New Label over...
Page 285
Numerics removal and maintenance 3-13 Alarm Indication 3-10 0V 2-36 alarm indicators 10 X 10 switching matrix 1-7 fan 3-14 12 Port TDM Crosspoint Submodule 4-49 alarm specifications A-6 121288-1 4-53 alarms 121289-1 4-59 system controller 5-8 121292-1 4-30 Analog inputs C-6 121293-1/2 4-34 Analog Rear Panels C-4 121295-1 4-49...
Page 286
Configuration and Operation 3-1 source 1-5 connector suppliers A-9 Delay Considerations 1-22 control panel Digital Audio Analog to Digital (ADC) Input with troubleshooting table 5-9 TDM Board 4-72 control specifications A-6 Digital Audio Digital to Analog (DAC) Output with control subsystem troubleshooting table 5-7 TDM Board 4-66 Controls And Indicators digital audio specifications A-4...
Page 287
SMPTE 2022 Transmitter 4-120 Power Supply 3-15 power supply alarms 5-6 Power Supply Status crosspoint card diagnostic interface B-22 LED Indications Pre Power-Up Checks 2-37 power supplies 4-128 Local Monitoring Processor Menu SMPTE 2022 Receiver 4-111 SMPTE 2022 Transmitter 4-120 rack frame layout 2-17 rack frame mounting 2-17 Rear Panel Connections...
Need help?
Do you have a question about the Utah-400 2 Series and is the answer not in the manual?
Questions and answers