Contents of this publication may not be reproduced in any form without the written
permission of Ross Video Limited. Reproduction or reverse engineering of
copyrighted software is prohibited.
Notice
The material in this manual is furnished for informational use only. It is subject to
change without notice and should not be construed as commitment by Ross Video
Limited. Ross Video Limited assumes no responsibility or liability for errors or
inaccuracies that may appear in this manual.
Trademarks
• is a registered trademark of Ross Video Limited.
• Ross, ROSS, ROSS
Video Limited.
•All other product names and any registered and unregistered
trademarks mentioned in this guide are used for identification purposes
only and remain the exclusive property of their respective owners.
, and MLE are registered trademarks of Ross
Warranty and Repair Policy
Ross Video Limited (Ross) warrants its Switchers and related options, to be free
from defects under normal use and service for a period of THREE YEARS from the
date of shipment. Fader handle assemblies are warranted for the life of the product.
If an item becomes defective within the warranty period Ross will repair or replace
the defective item, as determined solely by Ross.
Warranty repairs will be conducted at Ross, with all shipping FOB Ross dock. If
repairs are conducted at Customer Site, reasonable out-of-pocket charges will apply.
At the discretion of Ross, and on a temporary loan basis, plug in circuit boards or
other replacement parts may be supplied free of charge while defective items
undergo repair. Return packing, shipping, and special handling costs are the
responsibility of the customer.
Software upgrades for switchers, as defined by Ross, may occur from time to time.
Ross will notify Customers of such upgrades and subject to a Customer initiated
request, such upgrades will be provided free of charge within three years of the
original ship date, with shipping FOB Ross dock.
This warranty is void if products are subjected to misuse, neglect, accident, improper
installation or application, or unauthorized modification.
In no event shall Ross Video Limited be liable for direct, indirect, special, incidental,
or consequential damages (including loss of profit). Implied warranties, including
that of merchantability and fitness for a particular purpose, are expressly limited to
the duration of this warranty.
This warranty is TRANSFERABLE to subsequent owners, subject to Ross’
notification of change of ownership.
Important Regulatory and Safety Notices to Service Personnel
Please review the following material to avoid personnel injury and to prevent
product damage.
•All product servicing should be carried out by qualified service
personnel.
•This product may require specific equipment, and/or installation
procedures to be carried out to satisfy certain regulatory compliance
requirements. Notices have been included in the Operator and Service
manuals, to call attention to these specific requirements.
Symbol Meanings
• Protective Earth
• Caution. Refer to the manual for important safety or
compliance related information.
•Warning Hazardous Voltages
Cautions to Service Personnel
Please review the following important cautions:
•Use Proper Power Cords
Use only power cords specified for this product and certified for the
country of use.
•Multiple Power Cords
This equipment can be configured with more than one power cord. To
reduce the risk of shock, disconnect all power cords before servicing.
•Redundant Power Supply Connection
This equipment can be configured with dual power supply modules to
provide for power supply redundancy. To reduce the risk of shock and
to provide for maximum power supply redundancy, plug each of the
supply cords into separate branch circuits employing separate service
grounds.
•Product Power Disconnect
Certain parts of this equipment still presents a safety hazard with the
power switch(es) in the OFF position. To avoid electrical shock,
disconnect all A/C power cords before servicing.
•Grounding of the Product
The safe operation of this product requires that a protective earth
connection be provided. This protective earth is provided by a
grounding conductor in the equipment’s supply cords. To reduce the
risk of electrical shock to operator and service personnel, this ground
conductor must be connected to an earthed ground.
•Battery Replacement
This equipment contains a Lithium battery which if replaced
incorrectly, or with an incorrect type, may cause an explosion. Replace
only with the same type.
•Safety Barrier Replacement
Service barriers within this product are intended to protect operator and
service personnel from hazardous voltages. For continued safety,
replace all barriers after servicing.
Power Cord Wiring Notices
•North American
This product is supplied with certified 10A/125V SVT type supply
cords. Conductors are color coded white (neutral), black (line) and
green or green/yellow (ground).
Operation of this equipment at line voltages exceeding 130V, will
require that supply cords with appropriate voltage and current ratings
be used.
•International Power Supply Cord
This equipment is supplied with CEE 7/7 European type, 10A/250V
certified supply cords.
In some countries, it may be necessary to supply the correct mains
supply cord. Use only an approved IEC 320 C-13 type A/C line cord
rated for a minimum 10A at 250V and that meets all safety
requirements necessary for the country in which they are to be used.
Further, the safe operation of this product requires that a protective
earth connection be provided. This protective earth is provided by the
grounding conductor in the equipment’s supply cord. To reduce the
risk of electrical shock to operator and service personnel, this ground
conductor must be connected to an earthed ground.
Company Address
Ross Video Limited Ross Video Incorporated8 John Street P.O. Box 880
Iroquois, Ontario, K0E 1K0 Ogdensburg, New York
Canada USA 13669-0880
General Business Office: (+1) 613
Fax: (+1) 613
Technical Support: (+1) 613
This guide provides information regarding the technical theory and maintenance of
the following Synergy switchers:
• Synergy 1
• Synergy 100
As a useful tool for the field engineer, the guide takes you through the switcher’s
block diagram, the main boards and components, and the steps required to install
various options in the chassis and control panel.
The following chapters are included:
•Chapter 1, “Introduction” summarizes the guide and lists important
terms, conventions and abbreviations.
•Chapter 2, “System Architecture” describes the switcher’s block
diagram, and explains how video flows through the unit.
•Chapter 3, “Option Boards” provides basic information about the
optional boards: Serializers and Deserializers for timing Aux Buses, the
Border Generator, the Squeeze and Tease and Squeeze and Tease 3D
Board, the Ultimatte Insider Board, the Dual Aspectizer Board, and the
Frame Tally Board.
•Chapter 4, “Frame Processor (CPU) Board” provides details on the
Frame CPU board. The Serializer and Deserializer boards and their
installation are also discussed.
•Chapter 5, “Working with Installed Options” discusses the system
menus that allow you to verify the switcher’s installed options, install
serial numbers and install software options.
•Chapter 6, “DVE Send Option” outlines the procedures required to
install and test the DVE Send Option on the Synergy 1 switcher.
•Chapter 7, “Power Supplies” provides information about redundant
power, and procedures for changing control panel and frame power
supplies in the field.
instructions for basic Synergy 100 control panel maintenance
procedures, such as replacing knobs and buttons.
•Chapter 12, “Synergy 1 Control Panel Options” provides instructions
for installing a variety of control panel options, including VTR Remote Control, Video Server Control and Audio Server Control.
•Chapter 13, “Miscellaneous Options” provides instructions for
installing the Editor Interface Option.
• The Glossary provides a reference list of important switching and
video terms used throughout this guide.
An Index is also provided for your reference.
If, at any time, you have a question pertaining to your Ross Synergy 1 or Synergy 100 switcher, please contact us at the numbers listed in the front of this guide. Our
technical staff are always available for consultation, training, or service.
The following terms are used throughout this guide:
• “Frame” and “Electronics Frame” both refer to the Synergy 1 or 100
• “Operator” and “User” refer to the person who uses the Synergy
• “Panel” and “Control Panel” both refer to Synergy 1 or 100
• “SDI” refers to Serial Digital Interface, a digital video signal that is
• “System” refers to the entire Synergy system, consisting of its
• “Video system” refers to the mix of interconnected digital equipment
• A “1+0 DVE” has a video connection only going from the Synergy 1
switcher’s 2 RU electronics chassis.
production switcher.
switcher’s multi-button control panel.
distributed via a single coaxial cable with BNC connectors.
electronics frame and control panel.
(including the edit controller, VTRs, DVEs, etc.) in which the Synergy
system is included.
to the DVE. Both key and fill signals are connected from the DVE to
the Synergy 1.
• A “1+1 DVE” has both a video (fill) and an key (alpha) connection
going from the Synergy 1 to the DVE. Both key and fill signals are
connected from the DVE to the Synergy 1.
• “Primary DVE” refers to the one DVE (either single or multi-channel)
that is connected to a Synergy 1 switcher via RS-422 serial control.
This type of connection allows you to run the DVE using custom control buttons. You can also load DVE effects from the panel using
the Recall DVE button in the Global Memory System group.
• “Secondary DVE” refers to any number of DVEs that are connected to
the Synergy 1 switcher using video and key connections only — with
no RS-422 control. A secondary DVE must be controlled from its own
local control panel, or via GPI output pulses from the Synergy 1
switcher.
Throughout the many procedures in this Maintenance Guide, please observe all
static discharge precautions.
Caution
Avoid handling the switcher circuit boards in high static
environments such as carpeted areas, and when synthetic fiber
clothing is worn. Touch the frame to dissipate static charge
before removing boards from the frame, and exercise proper
grounding precautions when working on circuit boards.
048), Squeeze and Tease 3D (4000A-148), Aspectizer (4000A-050),
and the Ultimatte Insider™. The MLE outputs five signals:
Note
~ Program
~ Preview
~ Aux 1 (optionally timed)
~ Aux 2 (optionally timed)
~ Clean Feed (optional)
The following two sections provide diagrams of the front and
rear chassis of the Synergy 1 and 100 switchers. For more
detailed descriptions of the components listed in the diagrams,
please refer to the “Equipment Overview” section in Chapter
2 of the Synergy 1 Installation Guide, Synergy 1 Edition or
the Synergy 1 Installation Guide, Synergy 100 Edition..
The figure below illustrates the front of the chassis, with the door removed.
Frame Processor (CPU) Board (4216A-001)
Synergy 1 Frame, Front View
Rear Chassis Layout
The figure below illustrates the rear connector panel of the electronics chassis. The
connector layout is identical for the Synergy 1 and Synergy 100 switchers.
CAUTION:
POWER
TO REDUCE THE RISK OF
FIRE REPLACE W ITH SAME
FAN
FAIL
PWR
FAIL
PWR
ON
FUSE AND RATING
FUSE
T4A/250V
1
R
This class A device complies with Canadian ICES-003 and part 15 of the FCC rules.
Operation is subject to the following conditions: (1) This device may not cause
harmful interference, and (2) this device must accept any interference received,
including interference that may cause undesired operation.
POWER
OK
-12 +5 +10 +15
3
2
SYNERG Y
PANEL
4
210/216 PA NEL
100/110 PA NEL
MOUNT IN RACK ONLY
100-120 / 200-240V ~
AUX
PANEL
5
6
50/60 Hz
2.7A 180W
OUT
Aux 9
7
Aux 10
Aux 8
Aux 7
8
GPI I/O
Clean
Aux 1PV1
Aux 4
Aux 2 PV2
Aux 3
Aux 5
PGM1
14
9111315
10 12 14 16 COMMON
1357
2468COMMON
PGM2Aux 6
601 REF I N
9
TALLY
EDITOR DVE
2
1
246810121416
1357
Synergy 1 Frame, Rear View
1) Fan Exhaust Vent 6) Ross 210/216 Panel Connector 11) DVE Connector
The following primary system boards are referred to throughout this chapter:
•Frame Motherboard (4216A-002)
Also called the backplane, this non-removable board provides the
interconnects between the Frame Processor board, power supply and
external connections. The board has no active components.
•Frame Processor (CPU) (4216A-001)
The Frame Processor resides in the slot of the chassis. It contains the
main system microprocessor which handles high-level control
functions and all of the remote serial communication for the Synergy 1
frame. It also provides connectors for mounting of all of the optional
daughter boards.
•Program — routed to a rear-chassis BNC output connector, to the
Preview Matrix, and also back into the crosspoint matrix.
•Preview — routed to a rear-chassis BNC output connector and to the
Preview Matrix.
•Clean Feed — routed to a rear-chassis BNC output connector and also
back into the crosspoint matrix.
•Aux 1 — routed to a rear-chassis BNC output connector through the
video switch. (Synergy 1 only)
•Aux 2 — routed to a rear-chassis BNC output connector through the
video switch. (Synergy 1 only)
Serializer Modules
Program, Preview, Clean Feed, Aux 1, and Aux 2 video each come out of the
MLE as parallel 10-bit data. These signals are then routed through small Serializer Modules (4000A-062) as shown below.
Serializer Module
Serializer Modules convert the parallel digital video data into the serial format,
which can then be routed via coax cables through your facility, or used internally in
the Synergy’s crosspoint matrix. The crosspoint matrix requires that everything must
be in the serial format. Thus any signal that is routed to the crosspoint matrix must
go through a Serializer Module, from any given output.
Note that Clean Feed has a dedicated BNC output, just like Program and Preview,
but DVE Send is only available to the outside world by routing it into the video
switch, and then out via an Aux Bus. There is no DVE Send BNC output.
Aux Buses
The routing for Synergy 1’s Aux Buses is described in this section. Refer to the
illustrations on the following page.
Aux Buses 1 and 2 can be configured for either “timed” or “untimed” operation.
• For untimed Aux Bus operation, the lower circuit is used — going
directly from the crosspoint matrix to the video switch, and then to the
output BNC connector. No other processing is required.
• For timed Aux Bus operation, the upper circuit is used — going first
through a Deserializer Module (4000A-061).
Deserializer Module
4000A-062
Serializer
Modules
AUX2
(timed)
The Deserializer Module converts the signal from serial data to 10-bit
parallel data, but it also handles the timing of the inputs by auto-timing
the signal to reference.
The signal is then routed into the MLE video processing core, through
circuitry that performs blanking insertion, signal clean-up, and
synchronization to system reference. Note that the blanking does not
affect the imbedded ancillary data in the vertical interval.
As the last step, the signal is routed through a Serializer module,
converted from parallel to serial, then through a driver (video switch)
to the output BNC connector.
Aux Buses 3 to 8 inclusive are untimed, and are switched directly on the crosspoint
matrix. Refer to the illustration below:
Regarding timing, there is very little delay on the untimed Aux Bus outputs. The
timed Aux Bus outputs, however, are delayed such that they are timed to match the
PGM output of the switcher.
PLL and SPG
The PLL (Phase Lock Loop) and SPG (Sync Pulse Generator) circuitry takes the
reference video signal from the REF IN BNC (in serial form) and creates a clean
clock — plus various other sync pulses for the system.
Dedicated
REF IN BNC
Within the PLL and SPG circuitry, there are two modes in which the Deserializer
Module (4000A-061) can work:
•The simplest mode is when the Deserializer is used for the reference.
The microprocessor tells the module to add a delay of [n] clocks. The
signal comes in — it is then delayed and fed out.
•On all other buses (e.g., MLE, Aux Buses) system software requests a
delay of [n] clocks from the reference. The reference sends a sync
pulse, then the module looks at incoming video and adjusts the delay
dynamically — delaying video by [n] from the reference signal.
Reference
Input
PLL
PLL and SPG Circuitry
10-bit
27MHz Clock
27MHz Clock
SPG
H-Sync
V-Sync
Field Pulse
System delay on the Synergy 1 is adjusted using the Reference Menu. In Chapter 7
of the Synergy 1 Installation Guide, Synergy 1 Edition, see the “Reference Delay Adjustment” section.
System delay on the Synergy 100 is adjusted using the Outputs Menu. In Chapter 7
of the Synergy 1 Installation Guide, Synergy 100 Edition, see the “Outputs Menu”
section.
Outputs
Note
0. Aspect
1. Ref Dly
2. CleanBeforeKeys
3. Ancill ary data
4. Rem Aux Off
MENU
Exit
4:3
300
100
Previous
10
Down1Up
SEL
Accept
Synergy 100 Reference Menu
The output of the Deserializer module is routed to the SPG, that in turn generates
Horizontal Sync, Vertical Sync and Field Pulse.
Another output from the Deserializer module is a 27 MHz clock, which is routed to
the PLL (Phase Lock Loop). Within the PLL is a stable oscillator that regenerates
the 27 MHz clock, filtering out all jitter and generating the stable (clean) 27 MHz
signal that clocks the entire system. The net result is that if you have a jittery
reference signal, the switcher’s output will not be adversely affected on its outputs.
The PLL loop bandwidth is 300 Hz. Therefore, low frequency
jitter below 300 Hz will not be filtered out by the PLL.
If the reference is not present (or is lost), the PLL and SPG still continue to run. In
this condition however, the switcher can default to 625-line mode and the clock rate
is not guaranteed. Furthermore, the switcher may lose lock with the video.
System Timing and Non-Sync Detectors
Non-sync detection is based in the Deserializer Module (4000A-061). As discussed
above, a simple delay can be used, or the module can look at the reference signal and
then determine an offset.
The only information that the Deserializer Module has about the reference is
Horizontal Sync. The module itself guarantees that the video will be locked
horizontally — after video passes through it.
Additionally, the module’s vertical sync output is examined, and compared to that of
the reference. If the two signals do not match vertically, the system considers the
video to be non-synchronous — and the N/S (Non-Sync) LED lights on the panel
(on the bus on which the source was chosen). In this non-sync situation, the selected
video may be stable, but it will be shifted vertically.
If you have an input signal that is out of the timing window (too far out of time
horizontally), the signal may lock to the next (or to the previous) Horizontal Sync
pulse. This situation, however, can introduce a one-line offset, either up or down —
and the N/S light will again come on.
The Synergy 1 switcher “auto-times” around the reference — on the inputs. Synergy
1 specifications allow a ¼ line tolerance with regard to timing. If your input is ¼ line
early or ¼ line late, relative to the reference, the system can time it properly and
make it lock exactly. If the signal is greater than the allowed tolerance, the system
can not guarantee that it will lock to the correct “H.” It may possibly lock to the
previous H, or to the next H.
Please note:
•In order for Synergy 1 to properly auto-time late signals (with respect to the
reference), the switcher’s reference delay must be set to at least the amount of time
that the incoming signal is late. For example, if a video source arrives 1 microsecond
later than the reference, the reference delay must be set to at least 1 microsecond for
Synergy 1 to properly auto-time the source. In Chapter 7 of the Synergy 1
Installation Guide, Synergy 1 Edition, refer to the “Reference Delay Adjustment”
section for details on setting the reference delay. In the Synergy 1 Installation
Guide, Synergy 100 Edition, see the “Outputs Menu” section in Chapter 7.
•Synergy 1 has one non-sync detector per bus (including the Aux
Buses).
•The non-sync detection circuitry itself resides on the Frame Processor
board. However, the detection circuitry uses the V Sync pulse from the
Deserializer Module to determine sync status.
• The N/S LED lights only when a non-synchronous input is selected on
a given bus. Thus if three non-sync sources are chosen on PGM, KEY
and PST, each N/S LED will light on the respective buses.
•There are no non-sync detectors on untimed Aux Buses.
This section describes the Synergy 1’s CPU structure, in terms of which areas are
controlled by which specific microprocessors. Effectively, Synergy 1’s CPU
structure functions as a master/slave duo-processor system, where the master
processor controls high level functionality, and delegates other tasks to slave
processors.
In a Synergy 1 system, you have two microprocessors in the frame, plus one in the
control panel. Each microprocessor is a 50 MHz floating point DSP (TMS-320-C32, manufactured by Texas Instruments), and each is identical — running at the
same clock rate.
Processor distribution and functionality is as follows:
•One “Frame Processor” on the Frame Processor Board is responsible
for performing high level functions, and issuing commands to the MLE
processor. This processor manages all serial channels to and from the
chassis, and manages communications with all other peripheral devices
connected to the frame. In addition, it manages communications with
the control panel, and in the case of the Synergy 100 Control Panel,
communicates to the Control Panel Processor which LEDs to turn on
and off and which text to write in the various displays on the panel.
™
The Frame Processor also controls the Ultimatte
Dual Aspectizer
®
board and non-MLE functions, including all Aux
Insider board, the
Bus functions, and all crosspoint switching.
•One “MLE Processor” on theFrame Processor Board processes high-
level information that pertains to the current state and specific
commands issued on the MLE.
This high level information includes which functions are enabled or
disabled, and what configurations have been set up by the user on the
control panel. The MLE Processor translates that information, and sets
the required bits in the hardware to complete the command request.
Following are several examples:
~ If you press WIPE in the MLE and select the circle wipe in the
Pattern Control Group, that information goes to the Frame
Processor — which in turn tells the MLE Processor that a circle
wipe has been requested. The MLE Processor then draws the
proper tables required to make the image.
~ If you pull the Fader from Program to Preset, the Frame Processor
receives that information and analyses how it affects the high level
structures within the switcher — e.g., which buses are moving,
what type of effect has been requested (Dissolve, Wipe, DVE,
etc.). The Frame Processor then passes the current state of a
particular field to the MLE Processor, which then writes the
effect’s specific values to the video processing circuitry.
~ If you press the AUTO TRANS button, that command goes from
the control panel to the Frame Processor, which in turn keeps track
of which state the transition is in. Commands are then issued to the
MLE Processor to perform the transition at (for example) 4% in
one field, 8% in the next field — until complete. The MLE
Processor in turn does not process the video itself, but rather issues