Comments: Deleted tree format for kits. Deleted reference to AS/0510 in Table 2-4.
Identified mounting and switching kits
RF/TRF-CBND-WG is customer-select at time of ordering.
2.5.1 Mounting Kit
The following tables reflect the contents of the mounting and switching kits.
Changed Redundant Mounting Instructions
September 12, 2002
CSAT-6070 5 to 25 Watt, Installation and Operation Manual,
Rev. 0, dated December 5, 2001
MN/C607025.EB0
Attach this page to page 2-13
. Reversed existing Table 2-5 and 2-6.TRF Filter P/N
Table 2-4. 1:1 Mounting Kit Assembly, AS/0596
Part No. Nomenclature QTY
*AS/0414 Kit, Redundancy, Pole Mount 2
AS/0489 Assy, 1:1 25W CSAT 1
*AS/0608 Assy, Bracket Mount 25W CSAT 2
Revised temperatures as specified in the Specification list. This information will be incorporated into the
next revision.
Change Specfics:
Revise temperatures as follows:
-50°C = -58°F
75°C = 167°F
55°C = 131°F
Changed Specification Temperatures
December 13, 2002
CSAT-6070 5 to 25 Watt, Installation and Operation Manual,
Rev. 0, dated December 5, 2001
MN/C607025.EC0
Attach this page following page 1-5
Filename: T_ERRATA 1
Errata D
Comtech EF Data Documentation Update
Subject:
Date:
Document:
Part Number:
Collating Instructions:
Comments:
The following changes provide updated information for Appendix B. This information will be
incorporated into the next revision.
Changes to Appendix B (Supported Communications)
June 18, 2003
CSAT-6070 25 Watt C-Band Transceiver Installation and
Operation Manual, Rev. 0, dated December 5, 2001
MN/C607025.ED0
Attach this page to page B-1
Change Specifics:
Appendix B.REDUNDANT SYSTEMS
The CSAT-6070, 5 to 25 Watt C-Band Tranceiver, is capable of operating in both stand-alone
and redundant configurations. The CSAT fully redundant system provides automatic detection,
switching, and status for both its configuration and health. The system is designed such that
stand-alone operation is a functional sub-set of the fully redundant CSAT system. This provides
the user with transparent functionality regardless of the mode or complexity the system has been
setup to operate in.
Due to the parallel nature of the M&C interface, only EIA-485 and EIA-422
IMPORTANT
communications are supported through this device.
B.1 Redundant System ...............................................B-1
Installation guidelines regarding power line quality
As a company with many years of experience selling and servicing equipment installed around
the world, Comtech EF Data has become familiar with the varying quality of the AC power grid
around the world. The following offers some installation guidelines that should help ensure a
reliable installation.
• Surge suppression: High voltage surges can cause failure of the power supply. These
surges are typically caused by circuit switching on the main AC power grid, erratic
generator operation, and also by lightning strikes. While the transceiver does have built
in surge suppression, if the unit will be installed in a location with questionable power
grid quality, Comtech EF Data recommends installation of additional power
conditioning/surge suppression at the power junction box.
• Grounding: The transceiver provides a grounding terminal. This is provided to allow
the user to ground the transceiver to the antenna’s grounding network. All components
installed at the antenna should be grounded to a common grounding point at the
antenna.
• Electrical welding: If welding needs to take place at the antenna, disconnect all cables
from the transceiver except for the ground wire. Cap all RF connections with
terminations. This will prevent damage to the input/output circuitry of the transceiver.
• Lightning: Lightning strikes on or around the antenna will generate extremely high
voltages on all cables connected to the transceiver. Depending on the severity of the
strike, the transceivers internal surge protection combined with the recommended
external suppression may protect the transceivers power supply. However, if the
installation will be in an area with a high probability of lightning strikes, Comtech EF Data
recommends the installation of surge suppression on the RF and IF cables. One source
of these suppressors is PolyPhaser (
For further information, please contact Comtech EF Data, Customer Support Department.
2.1 Unpacking and Inspection ................................................................................................................................2–1
3.2 Turning On the CSAT.......................................................................................................................................3–3
5 to 25 Watt C-Band Transceiver Revision 0
Preface MN/CSAT607025.IOM
3.3 Configuring the CSAT ......................................................................................................................................3–3
3.3.3 Gain Offset ...................................................................................................................................................3–4
3.3.9 Reference Frequency Adjust ........................................................................................................................3–6
3.3.11 Cold Start Function ....................................................................................................................................3–6
3.3.12 Auto Fault Recovery ..................................................................................................................................3–6
3.3.13 LNA Current Source ..................................................................................................................................3–7
3.3.14 LNA Current Calibration and Current Window.........................................................................................3–7
3.3.18 Set Physical Address ..................................................................................................................................3–8
3.3.19 Set Baud Rate.............................................................................................................................................3–9
3.3.20 Set Date ......................................................................................................................................................3–9
3.3.21 Set Time .....................................................................................................................................................3–9
APPENDIX A. REMOTE CONTROL ................................................................................................... A–1
A.3 Commands or Responses.................................................................................................................................A–6
APPENDIX B. REDUNDANT SYSTEMS ............................................................................................ B–1
B.1 Redundant System ........................................................................................................................................... B–1
B.4 Configuring a Redundant System.................................................................................................................B–10
APPENDIX C. MAINTENANCE AND TROUBLESHOOTING ............................................................ C–1
C.3.1 DC Power Supply Voltages........................................................................................................................C–2
C.3.4 LNA Current Fault......................................................................................................................................C–3
C.3.5 Fan Fault.....................................................................................................................................................C–3
C.3.6 Temperature Fault.......................................................................................................................................C–4
C.4 Equipment Return and Repair Procedure ....................................................................................................C–4
C.5 Product Application, Upgrading or Training Information ..........................................................................C–4
APPENDIX D. THEORY OF OPERATION.......................................................................................... D–1
D.1 RF Signal Conversion......................................................................................................................................D–2
D.2 Monitor & Control ..........................................................................................................................................D–4
About this Manual................................................................................................................................................... viii
Conventions and References ................................................................................................................................. viii
Reporting Comments or Suggestions Concerning this Manual............................................................................. viii
Limitations of Warranty............................................................................................................................................x
FIGURE 2-4. PREPARING THE POLE BRACKET ..............................................................................................2–6
FIGURE 2-5A ON THE POLE ................................................................................................................................2–7
FIGURE 2-6. CSAT SINGLE-THREAD BRACKET WITH HARDWARE..........................................................2–8
Table B-6 M&C Signal Description (Connector J5) ...............................................................................................B–5
vii
5 to 25 Watt C-Band Transceiver Revision 0
Preface MN/CSAT607025.IOM
About this Manual
This manual provides installation and operation information for the Comtech EF Data
CSAT-6070, 5 through 25 Watt model C-Band Transceivers. This is a technical
document intended for earth station engineers, technicians, and operators responsible for
the operation and maintenance of the CSAT-6070, 5 through 25 Watt model C-Band
Transceivers.
Conventions and References
Cautions and Warnings
CAUTION indicates a hazardous situation that, if not avoided, may result in
minor or moderate injury. CAUTION may also be used to indicate other
CAUTION
WARN ING
unsafe practices or risks of property damage.
WARNING indicates a potentially hazardous situation that, if not avoided,
could result in death or serious injury.
IMPORTANT indicates a statement that is associated with the task
IMPORTANT
being performed. .
Metric Conversion
Metric conversion information is located on the inside back cover of this manual. This
information is provided to assist the operator in cross-referencing English to Metric
conversions.
Trademarks
Other product names mentioned in this manual may be trademarks or registered
trademarks of their respective companies and are hereby acknowledged.
Reporting Comments or Suggestions Concerning this Manual
Comments and suggestions regarding the content and design of this manual will be
appreciated. To submit comments, please contact the:
Comtech EF Data Technical Publications Department : techpub@comtechefdata.com
viii
5 to 25 Watt C-Band Transceiver Revision 0
Preface MN/CSAT607025.IOM
Safety Notice
This equipment has been designed to minimize exposure of personnel to hazards.
The operators and technicians must:
• Know how to work around, with and on high voltage equipment.
• Exercise every precaution to ensure personnel safety.
• Exercise extreme care when working near high voltages.
• Be familiar with the warnings presented in this manual.
A Neutral Fusing - Double pole/ neutral fusing used on the prime power
supply input.
CAUTION
Lithium Batery Replacement
Danger of explosion if battery is incorrectly replaced. Replace only with the
same or equivalent type recommended by the manufactuer. Dispose of used
WARN ING
batteries according to battery manuafuactuer.
ix
5 to 25 Watt C-Band Transceiver Revision 0
Preface MN/CSAT607025.IOM
Warranty Policy
This Comtech EF Data product is warranted against defects in material and
workmanship for a period of 24 months from the date of shipment. During the warranty
period, Comtech EF Data will, at its option, repair or replace products that prove to be
defective.
For equipment under warranty, the customer is responsible for freight to Comtech EF
Data and all related custom, taxes, tariffs, insurance, etc. Comtech EF Data is
responsible for the freight charges only for return of the equipment from the factory to
the customer. Comtech EF Data will return the equipment by the same method (i.e., Air,
Express, Surface) as the equipment was sent to Comtech EF Data.
Limitations of Warranty
The foregoing warranty shall not apply to defects resulting from improper installation or
maintenance, abuse, unauthorized modification, or operation outside of environmental
specifications for the product, or, for damages that occur due to improper repackaging of
equipment for return to Comtech EF Data.
No other warranty is expressed or implied. Comtech EF Data specifically disclaims the
implied warranties of merchantability and fitness for particular purpose.
Exclusive Remedies
The remedies provided herein are the buyer's sole and exclusive remedies. Comtech EF
Data shall not be liable for any direct, indirect, special, incidental, or consequential
damages, whether based on contract, tort, or any other legal theory.
Disclaimer
Comtech EF Data has reviewed this manual thoroughly in order that it will be an easy-touse guide to your equipment. All statements, technical information, and
recommendations in this manual and in any guides or related documents are believed
reliable, but the accuracy and completeness thereof are not guaranteed or warranted, and
they are not intended to be, nor should they be understood to be, representations or
warranties concerning the products described. Further, Comtech EF Data reserves the
right to make changes in the specifications of the products described in this manual at any
time without notice and without obligation to notify any person of such changes.
If you have any questions regarding your equipment or the information in this manual,
please contact the Comtech EF Data Customer Support Department.
x
Chapter 1. INTRODUCTION
CSAT-6070 5 through 25 Watt
C-Band Transceiver
This manual provides instructions on the installation, operation and maintenance of the
CSAT-6070, 5 through 25 Watt Model C-Band Transceiver, manufactured by Comtech
EF Data.
1-1
5 to 25 Watt Model C-Band Transceiver Revision 0
Introduction MN/CSAT6070.IOM
1.1 FUNCTIONAL DESCRIPTION
The Transceiver is designed for use in communication systems, or in satellite up-link data
systems, for the reception of SCPC DAMA, and TDMA communication signals. It can
also be used in communications system applications with full transponder HDTV and
analog TV.
The converter is environmentally sealed and is designed to be hard mounted on or near
the antenna structure. A covered cooling fan is mounted on the outside of the unit to
maintain a reduced operating temperature for enhanced reliability.
The Downconverter RF input connector is wired to supply DC voltage to an LNA.
This voltage is capable of damaging any test equipment connected to the
WARN ING
connector. Do not connect test equipment to this connector without a coaxial DC
block between the connector and the test equipment.
1-2
5 to 25 Watt Model C-Band Transceiver Revision 0
Introduction MN/CSAT6070.IOM
Figure 1-1 Dimensional drawing
1-3
5 to 25 Watt Model C-Band Transceiver Revision 0
Introduction MN/CSAT6070.IOM
Figure 1-2 Remote Switch Dimensional drawing
1-4
5 to 25 Watt Model C-Band Transceiver Revision 0
Introduction MN/CSAT6070.IOM
1.2 SPECIFICATIONS
Specifications are listed in the following product data sheet pages.
1-5
CSAT-6070
C-Band Transceiver
5, 10, and 25 Watt
INTRODUCTION
The CSAT-6070 has been developed by a team of RF
engineers with many years of experience in designing and
manufacturing satellite transceivers and other RF products.
The CSAT-6070 embodies the best design effort of the group.
The CSAT-6070 is designed to provide the user with superior
performance, long-term reliability, and ease of installation with
a very price competitive product.
The CSAT-6070 is the perfect choice for your VSAT application
for TDMA, DAMA, SCPC/MCPC, or any other point-to-point
application.
FULL RATED POWER
The CSAT-6070 delivers the full rated power, or more,
measured at the 1 dB compression point and at the output
flange. The user now knows the useable output power he is
purchasing and receives full value for his investment.
PHASE NOISE
The dual synthesizers in the CSAT-6070 deliver superior
phase noise performance, exceeding Intelsat specifications by
a very comfortable margin. The user receives the benefits of
spectral purity and the ability to go into multi-carrier
environments with less concern.
THIRD ORDER INTERCEPT
The design of the CSAT-6070 gives the user a high T.O.I. that
allows multi-carrier applications without the concerns normally
associated with low power environments. The CSAT-6070
delivers performance usually found only in SSPA systems.
SMALL, COMPACT DESIGN
The CSAT-6070 offers a 5-Watt, 10-Watt, and a 25-Watt
transceiver in the same basic outdoor enclosure. This design
allows quick, easy installation for all basic units in this family
of transceivers. With the use of the EDMAC features of the
companion CDM family of modems, even installation can be
made without the requirement for expensive, heavy test
equipment.
FULL MONITOR AND CONTROL
Designed into the CSAT-6070 are a variety of methods to
monitor and control this device. The CSAT-6070 offers full
Monitor and Control from a small, convenient Hand-Held
Terminal or easy access via EIA-232 or EIA-485 connections.
Full remote M&C can be achieved through the companion CDM
Modem family or the PC Windows based EDMAC proprietary
monitor and control software.
The CSAT-6070 is available in a 1:1 redundant configuration.
CSAT-6070
C-Band Transceiver
5, 10, and 25 Watt
Transmit
Frequency RF 6725 to 7025 MHz
Frequency IF 70 MHz ± 18MHz
140 MHz ± 36MHz (Optional)
Output Power, P1Db 5 W +37dBm
10 W +40dBm
25 W +44dBm
Gain 5 W 65dB
10 W 68dB
25 W 71dB
Gain Flatness ±0.75dB full RF band
±0.75dB per 36MHz
Gain Stability ±0.25dB at constant C
±1.00dB from -40º to+55ºC (-40 to 131ºF)
Carrier Mute -70dBc
Inter-modulation -33 dBc for two carriers at -6dB OPBO from
rated power
Second Harmonic -55 dBc
Spurious AC line harmonics -45dBc
Carrier related, <500kHz -60dBc
All other in-band -65dBc
AM to PM Conversion 3.0 Degrees at 6dB
OPBO from rated power
RF Output VSWR 1.25:1
RF Output Connector 5 W Type N Female
10 W Type N Female
25 W Type N Female
IF Input Impedance 50 Ohms
IF Input VSWR 1.25:1
IF Input Connector Type N Female
Receive
Frequency RF 4500 to 4800 MHz
Frequency IF 70 MHz ±18MHz
140 MHz ±36MHz (Optional)
Gain, without LNA 45dB
Gain Flatness, without LNA ± 0.75dB full RF band
± 0.75dB per 36MHz
Gain Stability, w/o LNA ± 0.25dB constant temp.
± 1.00dB -40º to +55ºC (-40 to 122ºF)
Output Power, P1dB +13dBm
Two Tone Inter-modulation -50 dBc for two tones at 0 dBm each,
1MHz apart
Image Rejection -60dBc
RF Input VSWR 1.25:1
RF Input Connector Type N Female
IF Output Impedance 50 Ohms
IF Output VSWR 1.25:1
IF Output Connector Type N Female
Common
Conversion Dual, no spectral inversion
Frequency Step Size 1.0 and 2.5 MHz automatic
Frequency Stability 1x10
1x10
40º to +55ºC 1x10
Attenuation Tx 0 to 25dB in 0.25dB steps
Rx 0 to 20dB in 0.25dB steps
Phase Noise 100 Hz -66dBc/Hz
1 kHz -76dBc/Hz
10 kHz -86dBc/Hz
100 kHz -96dBc/Hz
Group Delay Linear 0.1ns/MHz
Parabolic 0.02ns/MHz
Ripple 1ns p-p
Monitor and Control
Methods Both EIA-485 and EIA-232 Serial Interface
Handheld controller, optional
Commands
Set Tx frequency
Set Rx frequency
Set Tx attenuation
Set Rx attenuation
Report Tx output power
Mute Tx
Report internal temperature
Report power supply voltages
Set time
Set date
Faults Upconverter functions
Downconverter functions
Upconverter Synthesizers
Downconverter Synthesizers
Internal Reference oscillator
LNA current fault
Over temperature condition
Environmental
Temperature -40º to +55ºC (-40 to 122ºF) Operating
-50º to +75ºC (-90 to 135ºF) Storage
Altitude 15,000 ft, mean sea level
Humidity 0 to 100 Percent, Relative
Prime Power 90 to 260 VAC Standard
47 to 63 Hz Standard
48VDC Optional
Dimensions: 8H x 8W x 11D inch (20H x 20W x 28D cm)
Weight: 36 lbs (16 kg)
Low Noise Amplifier 45ºK, non-isolated
-9
/day
-7
/year
-8
/Temp.
2
Introduction 5 to 25 Watt Model C-Band Transceiver
1-8
Chapter 2. INSTALLATION
2.1 UNPACKING AND INSPECTION
Inspect the shipping container for damage:
Retain shipping container and packing materials for possible re-shipment.
Checked to determine that all parts, materials and documentation has been shipped
with the converter.
Inspect converter for possible damage, and then tested for proper operation.
2.1 Unpacking and Inspection.................. 2–1
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
2.4.2 S
1. Place unistrut bracket (1, Figure 2-1) on a flat surface.
2. Slide springnuts (9) into the channel of the unistrut bracket.
3. Fasten two pipe blocks (11) loosely to the springnuts using two bolts (6), two flat
INGLE-THREAD INSTALLATION
washers (7), and two split washer (8).
Figure 2-3. Single- Thread Installation
IMPORTA
LNA are required for installation.
NT
Two RF Cables (TX/RX) and a
Figure 2-4. Preparing the Pole
Bracket
2–6
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
4. Position the unistrut bracket (1) with pipe blocks (11) against the mounting pole, slide
the pipe blocks (11) until they contact the mounting pole.
5. Ensure the pipe blocks (11) are centered to the unistrut bracket (1).
6. Tighten the hardware.
Installing the Pole Bracket with CSAT Mounting Plate.
Figure 2-5a On the pole
Figure 2-5b Looking down
7. Attach bracket (5, figure 2-1) to the strap (4) using two nuts (10), two flat washers,
(7), and two split washers (8).
8. Place the assembly against the pole with the strap around the pole and trim the strap
to fit as shown in Figure 2-5, using the tin snips.
9. Attach bracket (3, figure 2-1) to the strap (4) using two nuts (10), two flat washers (7),
and two split washers (8).
10. Slide tensioner bracket (2) into channel of the unistrut bracket (1).
11. Place assembly on the pole. Slide bracket (3) over bracket (2).
2–7
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
12. Place flat washer (7) and split washer (8), and nut (10) on bracket (2). Tighten nut to
secure the tension strap.
13. Slide two springnuts, (5, figure 2-2) into channel of the unistrut bracket
(1, figure 2-1).
14. Place bracket (1, Figure 2-2) over springnuts and secure using screws (3).
Figure 2-6. CSAT Single-Thread Bracket with
Hardware
Figure 2-7. Install CSAT Single-Thread Bracket
Observe the orientation of the “Key”
slots used for mounting the CSAT
IMPORTANT
Transceiver.
2–8
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
15. Mount the unit as follows:
16. Loosely install four bolts (2, Figure 2-2), four flat washers (4), and four split washers
(6) into bolts hole located on the rear side of the unit.
17. Position unit against the bracket and hook the bolts into the key slots.
18. Tighten bolts to secure.
Figure 2-8. Mounted CSAT Unit
2.4.3 LNA I
The LNA can be mounted at three different options (Customer Select):
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
To install a single LNA to an antenna:
1. Remove the protective cover from the antenna OMT and LNA.
2. Install the appropriate gasket on the antenna end of the LNA.
a. If only one of the mounting surfaces has a groove, use the half-thick gasket.
b. If both mounting surfaces have grooves, use the full thick gasket.
3. Position the LNA (with gasket) in place on the antenna and fasten using the supplied
hardware.
2.4.4 C
Refer to Figure 2-9.
Care shall be exercised in cable installation. Install the cables using the most direct route
and secure with clamps and ties. Avoid all sharp bends.
Cable connectors used in outdoors application shall be sealed to avoid leakage,
particularly, N-type connectors. Moisture can seep into junctions at the plug end of the
connector, between the fixed and movable parts, and where the cable connects to the
connector. Signal attenuation and possible loss of signal can occur in the presence of
moisture. All cable junctions shall be sealed with a self-amalgamating tape, such as 3M,
Type 23 Scotch Self-Amalgamating tape, or equivalent, including military style (MS)
connectors.
ABLE INSTALLATION
The Downconverter RF input connector is wired to supply DC voltage to an LNA.
This voltage is capable of damaging any test equipment connected to the connector.
WARN ING
Do not connect test equipment to this connector without a coaxial DC block between
the connector and the test equipment.
2–10
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
Figure 2-9. Cable Connections
2–11
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
2.5 REDUNDANCY CONFIGURATION
Figure 2-10. Redundancy Configuration
2–12
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
2.5.1 M
The following tables reflect the contents of the mounting kits.
OUNTING KIT
2–13
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
Table 2-4. 1:1 Mounting Kit Assembly, AS/0596
Part No. Nomenclature QTY
*AS/0414 Kit, Redundancy, Pole Mount 2
AS/0489 Assy, 1:1 25W CSAT 1
*AS/0608 Assy, Bracket Mount 25W CSAT 2
AS/0510 Assy, 1:1 C-Band 1
Note: Observe port locations as shown in
Figure 2-17. Refer to Figure 2-16 for parts
reference
1. Connect attenuator (2) to switch (1) Port 3.
2. Ensure that machined grooves of attenuator
allows for the future connection of the RF
cables.
3. Connect the plug termination, (6) to the
attenuator (2).
2–19
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Installation MN/CSAT6070.IOM
2.5.3 C
AS/0440 C
Note: Refer to Figure 2-18a for assembled view, refer to Figure 2-23 for LNA port
locations and refer to Figure 2-13 for Cable kit.
1. Connect one end of the Control cable, (4, Figure 2-12) to UNIT A (1 , Figure 2-17)
2. Connect one end of the Control cable, (5) to UNIT B (2 , Figure 2-17) connector.
3. Connect one end of Cable (2) to RX SWITCH (3 , Figure 2-17) connector
4. Connect one end of Cable (3, figure 2-13) to TX SWITCH connector (4 , Figure 2-17)
5. Set box aside for later installation.
6. The four RF cables, (1, Figure 2-12) are used to connect the IF ports on the switch
ONNECT CABLING TO THE REMOTE SWITCH BOX
ABLE KIT
connector.
controller to the units.
Figure 2-18.
Remote Switch Cast Box
, AS/0490
USING
Figure 2-18a
Switch Box with cables
2–20
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Installation MN/CSAT6070.IOM
2.5.4 R
Refer to Figures 2-19, 2-20, 2-21, and 2-22.
Notes:
1. Place two springnuts (7, figure 2-11) in each unistrut bracket (1, Figure 2-1).
2. Center the bracket (1, figure 2-11) horizontally on the top unistrut bracket
3. Loosen lower unistrut bracket and position so the lower holes in the bracket are
4. Position the springnuts as required. Secure bracket (1, figure 2-11) to the unistrut
5. Slide two springnuts (5, figure 2-1) into the right-side of each of the two channels of
6. Place one bracket (1, figure 2-2) against the right side of the switch bracket
EDUNDANCY INSTALLATION
1. Redundant CSAT’s require two AS/0414 pole mount kits. Refer to Section
2.4.2 for AS/0414 installation instructions.
2. After the two pole brackets have been attached to the pole, they need to be
properly spaced in relation to each other. This spacing is established with the
switch-mounting bracket (1, figure 2-11).
Figure 2-19. Installation of the
Redundant Brackets
(1, figure 2-1) and fasten with two bolts (8, figure 2-11) flat washers (5), and split
washers (6).
aligned vertically with the center of the lower unistrut bracket .
bracket (1, figure 2-1) using two bolts (8, figure 2-11), flat washers (5), and split
washers (6). Tighten the tension bracket (2, figure 2-1).
the unistrut brackets (1, figure 2-1).
(1, figure 2-11).
2–21
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Installation MN/CSAT6070.IOM
7. Position the springnuts to line up with four holes in bracket (1, figure 2-2).
8. Secure using screws (3, figure 2-2).
9. Repeat steps (5) and (6-8) for the left bracket (1, figure 2-2).
10. Place a unit on each bracket (1, figure 2-2) and secure with four bolts (2, figure 2-2),
flat (6, figure 2-2) and lock (4, figure 2-2) washers.
Figure 2-20. Installation of the CSAT
Transceivers
11. Position assembled TX switch (1, figure 2-15) on bracket (1, figure 2-11) and secure
with two screws (4), flat washers (2), and lock washers (3).
Figure 2-21 TX Switch installed on
bracket
2–22
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Installation MN/CSAT6070.IOM
Figure 2-22.
Remote Switch with
cables installed
2–23
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Installation MN/CSAT6070.IOM
2.5.5 LNA I
1. Install gaskets on each port of the switch .
2. Position Low Noise Amplifiers (LNAs) on Port 2 and Port 4 of switch .
3. Secure each LNA with 10 bolts, lock washers and flat washers.
4. Position adapter, with termination, on Port 3 and secure with 10 bolts, lock washers,
NSTALLATION
and flat washers.
Figure 2-23. Switch Port Locations
IMPORTANT
If using a transmit reject filter, ensure that the OUTPUT flange of the filter is
against switch.
5. Position filter on Port 4 of switch and secure with four bolts, lock washers, and flat
washers, two bolts at each end.
6. Set assembly aside for later installation.
2–24
5 to 25 Watt Model C-Band Transceiver Revision 0
Installation MN/CSAT6070.IOM
Figure 2-24. LNA Switch Kit, Typical
Figure-2-25
Typical Installation of the Redundant LNA
Assembly.
2–25
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2.5.6 C
Refer to Figure 2-26.
Care should be exercised in cable installation. Install the cables using the most direct route
and secure with clamps and ties. Avoid all sharp bends.
Cable connectors used in outdoors application must be sealed to avoid leakage,
particularly, N-type connectors. Moisture can seep into junctions at the plug end of the
connector, between the fixed and movable parts, and where the cable connects to the
connector. Signal attenuation and possible loss of signal can occur in the presence of
moisture. All cable junctions must be sealed with a self-amalgamating tape, such as 3M,
Type 23 Scotch Self-Amalgamating tape, or equivalent, including military style (MS)
connectors.
ABLE INSTALLATION
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Figure 2-26. Cabling the Redundant Configuration
(Block Diagram)
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2.6 SPAR MOUNTING INSTRUCTION
2.6.1 S
PAR MOUNTING KIT
The following mounting is providing to Spar-mount the unit in a single thread
configuration.
3.2 Turning On the CSAT ........................3–3
3.3 Configuring the CSAT ........................3–3
This section contains instructions for operating the CSAT-6070, 5 to 25 Watt Mode
C-Band Transceiver. The Primary customer interface to the CSAT is via the Remote
Communications port. Appendix A provides details regarding the protocol and
command/response structure used on this interface. This section will define in detail the
controllable parameters provided via the command/response structure.
3.1 PIN-OUTS
3.1.1 C
VAC.
ONNECTOR
WARN ING
J3: AC P
To avoid a serious shock hazard, correctly determine the mating
connector type in use and wire it according to the following table:
EARLY UNITS NEWER UNITS
Pin Mating Connector Type
KPT06J12-3S
MS3116J12-3S
A Line Ground
B Ground Neutral
C Neutral Line
OWER
, M
AINS
, 100
Mating Connector Type
CA3106E18-22SB
TO
125 VAC,
OR
205
TO
240
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3.1.2 C
Mating connector: ITT: KPT06J14-19P or
Connections, see the following table:
ONNECTOR
J5: COMM, R
EMOTE COMMUNICATIONS PORT
.
MS3116J14-19P
Pin Signal I/O Notes
A EIA -485 +RX Input CSAT Receive Line
B EIA -485 –RX Input CSAT Receive Line Compliment
C EIA -485 TX+ Output CSAT Transmit Line
D EIA -485 TX- Output CSAT Transmit Line Compliment
E EIA -232 Rd Input CSAT Receive Line
F REDUNDANT FAULT Input Redundant Controller Status Input
G EIA -232 Td Output CSAT Transmit Line
H AUXCOM Rd Input Auxiliary RS232 Rd used with Redundant Controller
J AUXCOM Td Output Auxiliary RS232 Td used with Redundant Controller
K FAULT COMMON Output
L FAULT NORM OPEN Output Open(OK) / Short(Fault)
M FAULT NORM CLOSED Output Short(OK) / Open(Fault)
N ADDRESS SELECT Input Redundant Addressing
P ONLINE STATUS Input Input from Redundant Controller
R +24V AUX Output 24V output to power Redundant Controller
S REDUNDANCY Input Open (stand-alone) / Gnd (Redundancy)
T GROUND Passive
U GROUND Passive
V NO CONNECT
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3.2 TURNING ON THE CSAT
The CSAT does not contain a ‘Power On/Off’ switch. The CSAT is powered ON by
connecting the J3 “AC Power” connector to the appropriate prime power source. See
Section 1 for detailed requirements for the ‘prime power source’.
Never turn the unit ON without proper termination on the J7 “RF
OUTPUT” port. Individuals can be exposed to dangerously high
WARN ING
In addition, when directly connecting the CSAT to Laboratory Test Equipment, a DC
block should be used between the J2 ‘RF IN’ port and RF test source. The reason for this
is that the CSAT can be configured to supply a 11 Vdc, 400 milliamp, LNA Current
Source output on this port. The DC block will protect any test equipment connected
directly to J2.
electromagnetic levels.
3.3 CONFIGURING THE CSAT
The CSAT is a complete RF Down Converter Terminal, RF Up Converter Terminal, and
RF High Power Amplifier (HPA) in a single weather safe package. The following
paragraphs will define the meaning and use of all of the controllable parameter of the
CSAT.
3.3.1 F
3.3.2 A
REQUENCY
Both the Receiver frequency and the Transmitter frequency are user configurable. The
receiver frequency can be selected to any frequency divisible by either 1.0 MHz or 2.5
MHz in the valid Rx frequency range. The transmitter frequency can be selected to any
frequency divisible by either 1.0 MHz or 2.5 MHz in the valid Tx frequency range.
Both the Receiver attenuation and the Transmitter attenuation are user configurable. The
receiver attenuation can be selected between 00.00 and 20.00 dB in 0.25 dB increments.
The transmitter attenuation can be selected between 00.00 and 25.00 dB in 0.25 dB
increments.
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3.3.3 G
Both the Receiver and the Transmitter Gain Offsets are user configurable. The Gain
Offset are only used in redundant configurations. The user can use these parameters to
adjust for gain difference between two CSAT Transceivers used in a 1:1 redundant
configuration. The offset can be selected between 0.00 and –4.00 dB in 0.25 dB
increments.
The CSAT offers two operating modes with regards to frequency changes and unit
muting. The two modes are; ‘muted after frequency change’ and ‘unmuted after
frequency change’.
• If the Mute Mode is set to ‘1’, the firmware will leave the IF or RF muted
following a change to either the Down Converter Frequency or Up Converter
Frequency respectively. The operator can then ‘unmute’ the unit using the
commands in the next section.
• If the Mute Mode is set to ‘0’, the firmware will automatically ‘unmute’ the IF or
RF following a change to the Down Converter Frequency or Up Converter
Frequency respectively. This assumes that the unit was ‘unmuted’ prior to the
frequency change and that there are no faults following the change. The factory
default for this mode is ‘1’.
3.3.5 M
The output state of both the Receiver and the Transmitter are user controllable. The
receiver output state (the ‘IF IN’ port, J1) will be ON only if the following two
requirements are met:
1. The receiver hardware must be fault free (i.e. No Synthesiser or IFLO faults).
2. The receiver must be unmuted (i.e. DMU=0 ).
The transmitter output state (the ‘RF OUT’ port, J7) will be ON only if the following
three requirements are met:
1. The transmitter hardware must be fault free (i.e. No Synthesiser or IFLO faults).
2. The transmitter must be unmuted (i.e. UMU=0).
3–4
UTE
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3. The transmitter Amplifier must be ON (i.e. AMP=1).
The Tx amplifier ON/OFF state is user controllable. Turning the Tx amplifier OFF
removes the 10Vdc supply to the RF Power FETs. The TX Amplifier must be ON in
order for the CSAT to transmit a RF signal.
Comtech EF Data’s CSAT transcievers provide two operating modes for the Receiver IF
and Transmitter RF output channel slopes; ‘Calibrated’ and ‘Manual’ modes.
• In Calibrated mode, the CSAT firmware uses a calibration ‘lookup’ table based
• In Manual mode, the customer adjusts the channel slope using the DSA and USA
on the selected frequency to determine the optimum channel slope setting.
commands defined in the next section.
Both the Receiver IF output and the Transmitter RF output channel slopes are user
controllable.
• The receiver channel slope can be varied for approximately 2dB of positive slope.
The parameter for controlling this is the ‘Down Slope Adjust’ which can be
varied from 0.0 to 1.0 in 0.1 steps. 0.0 is the default setting and also is the value
used when the channel flatness is tuned and tested in the factory. 1.0 corresponds
to approximately 2dB of positive slope.
• The transmit channel slope can be varied for approximately 2dB of positive slope.
The parameter for controlling this is the ‘Up Slope Adjust’ which can be varied
from 0.0 to 1.0 in 0.1 steps. 0.0 is the default setting and also is the value used
when the channel flatness is tuned and tested in the factory. 1.0 corresponds to
approximately 2dB of positive slope.
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3.3.9 R
A manual, fine adjustment of the internal 10MHz reference frequency is provided as a
user controllable parameter. This parameter can be varied within the range 000 to 255,
with the factory default setting at 087. Varying this parameter from 000 to 255 will result
in a change of approximately 6.5kHz and 4.0kHz at the RF and IF output ports
respectively.
The CSAT allows the user to select whether or not the summary fault relay is activated if
the internal 10MHz reference loses lock with the external reference attached to
‘EXTERNAL REF IN port’ J4.
(The factory default is 0)
Associated Remote Command(s): XRF=
Example(s) XRF=0
3.3.11 C
The CSAT provides an optional ‘Cold Start’ feature that will ensure that the internal
10MHz reference signal is at a stable temperature prior to allowing the RF and IF outputs
to be turned ON. A fixed cold start interval of 15 minutes is used.
This parameter defines how the CSAT responds to momentary fault conditions.
If ‘Cold Start’ is ON when the CSAT is powered ON, the IF and RF outputs will
remain muted for 15 minutes even if all the conditions defined in 3.2.5 are
satisfied. At the end of the 15 minute interval, the RF and IF output will
automatically be turned ON if the conditions of 3.2.5 are met.
If a CSAT was powered ON with ‘Cold Start ON’, the operator can override this
function by setting ‘Cold Start OFF’.
UTO FAULT RECOVERY
If ‘Auto Fault Recovery ’ is OFF and a fault condition occurs that causes either
the RF or IF output to be muted, then that fault condition clears, the CSAT will
remain muted. In this mode, operator intervention is necessary to return the CSAT
to normal operating mode.
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If ‘Auto Fault Recovery’ is ON and the same situation occurs, the CSAT will
automatically be unmuted and return to normal operating mode. To protect
against repetitive, momentary faults, if the CSAT experiences five occurrences of
the same fault, the ‘Auto Fault Recovery’ parameter will automatically be set to
OFF.
Example: If the Up Converter IFLO synthesizer goes unlocked and starts sweeping while Auto
Fault Recovery is ON, the CSAT would see a unlocked / locked condition at the sweep rate of the
IFLO synthesizer. After the 5th occurrence the firmware will set Auto Fault Recovery to OFF and
keep the CSAT RF output muted.
The CSAT has the circuitry necessary to source current, at 11 Vdc, up the “RF IN” port
J2, to power a LNA. This current source can be turned ON/OFF via the user. This source
is capable of providing up to 400 mA.
The CSAT provides the capability to monitor the LNA current when configured to supply
current to a LNA. In addition, an adjustable window detect for the LNA current is
provided. After attaching the LNA and turning on the current source, the user can
‘Calibrate’ the current and set a window from ±20% to ±50% to trigger an alarm. The
user can disable the ‘window detect’ feature by setting the window value to ±99%. (The
factory default is 99)
Never turn the unit ON without proper termination on the J7 “RF OUTPUT” port.
Individuals can be exposed to dangerously high electromagnetic levels.
Exercise care when directly connecting the CSAT to Laboratory Test Equipment.
A DC block should be used between the J2 “RF IN”’ port and RF test source to
protect the test equipment in case the source is accidentally turned ON. (The
factory default is OFF).
URRENT CALIBRATION AND CURRENT WINDOW
3.3.15 LNA F
The CSAT allows the user to select whether or not the summary fault relay is activated if
the LNA current moves out the prescribed window. This allows the user to control
3–7
AULT LOGIC
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whether or not the redundancy controller will switch on a LNA current alarm in the
redundant configuration. (The factory default is 0)
The Operating mode of the Comtech EF Data Redundant Switch Unit (RSU-5060) can be
set via a command to the ONLINE CSAT. The RSU-5060 initializes to the AUTO mode
when power is first applied.
• In AUTO mode the RSU-5060 monitors the state of the two CSATs and will
automatically switch the OFFLINE unit online if the ONLINE unit faults.
• In MANUAL mode, the RSU-5060 will only switch the position of the Tx and Rx
transfer switches when commanded to do so via either the RTG= command or via
Pin V on the ‘M&C Control’ connector (J5) on the RSU-5060. The user sets
AUTO mode by sending a ‘1’ in the data field and MANUAL mode with a ‘0’ in
the data field.
EDUNDANCY CONTROLLER TOGGLE
• If the RSU-5060 is in AUTO mode, the command will only cause a switchover if
the OFFLINE unit is currently UNFAULTED.
• If the RSU-5060 is in MANUAL mode, the command will cause a switchover
independent of the state of the OFFLINE unit.
3.3.18 S
The Remote (Physical) address to which the CSAT will respond can be set to any value
between 0001 and 9999. (The factory default is 0001)
The CSAT contains a battery powered Real Time Clock (RTC) used to provide
Date/Time stamping of events, alarms and faults. The date can be changed by the user.
The CSAT contains a battery powered Real Time Clock (RTC) used to provide
Date/Time stamping of events, alarms and faults. The time can be changed by the user.
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3–10
Appendix A. REMOTE CONTROL
A.1 INTRODUCTION
This document describes the protocol and message repertoire for remote monitor and control of
the CSAT Outdoor terminal.
The electrical interface is either an EIA-485 multi-drop bus (for the control of many
devices) or an EIA-232 connection (for the control of a single device), and data is
transmitted in asynchronous serial form, using ASCII characters. Control and status
information is transmitted in packets, of variable length, in accordance with the structure
and protocol defined in later sections.
A.1.1 EIA-485
The EIA-485 interface is provided at the 19-pin circular J5 connector. The interface is a 4-wire
EIA-485 interface using the pin out shown in the table below. Since a half-duplex
communication protocol is used, the +Tx and +Rx as well as the –Tx and –Rx signals can be tied
together at the user end to support a 2-wire interface. The EIA-485 driver is only active during
transmission and is tri-stated when not is use.
Pin Signal Name I/O Notes
A EIA--485 +Rx Input CSAT Receive line
B EIA--485 –Rx Input CSAT Receive line complement
C EIA--485 +Tx Output CSAT Transmit line
D EIA--485 –Tx Output CSAT Transmit line complement
T Ground Passive
The EIA-232 interface is provided at the 19-pin circular J5 connector. The interface provides the
five signals shown in the table below. The CSAT only requires three wires (TD, RD, and
Ground), the other two signal are provided for terminal equipment that requires RTS/CTS
handshaking. The CSAT simply ties these two signals together.
A–1
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Table A-2. EIA-232 interface
Pin Signal Name I/O Notes
E EIA-232 RD Input CSAT Rx line
G EIA-232 TD Output CSAT Tx line
T Ground Passive
A.2 BASIC PROTOCOL
Whether in EIA-232 or EIA-485 mode, all data is transmitted half-duplex as asynchronous serial
characters suitable for transmission and reception by a UART. In this case, the asynchronous
character format is fixed at; 8 data bits, 1 stop bit, no parity. The baud rate may vary between
1200 baud and 19,200 baud.
All data is transmitted in framed packets. The master is assumed to be a PC or ASCII dumb
terminal, which is controlling the process of monitor and control. The master is the only device
that is permitted to initiate the transmission of data. Slaves are only permitted to transmit when
they have been specifically instructed to do so by the master.
All bytes within a packet are printable ASCII characters. In this context, the Carriage Return and
Line Feed characters are considered printable.
All messages from master to slave require a response (with one exception). This will either be to
return data that has been requested by the master, or to acknowledge reception of an instruction to
change the configuration of the slave. The exception to this is when the master broadcasts a
message (such as Set time/date) using Address 0.
A–2
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A.2.1 P
ACKET STRUCTURE
Table A-3. Master-to-Slave:
Start of
Packet
Character
< / = or ?
ASCII
Code
#
Characters
60 47 61 or 63 13
1 4 1 3 1 n 1
Device
Address
Address
Delimiter
Instruction
Code
Code
Qualifier
Example: <0135/UAT=12.25{CR}
Table A-4. Slave-to-Master:
Character > / =, ?, !, or *
ASCII
Code
#
Characters
Start of
Packet
62 47 61, 63, 33
1 4 1 3 1
Device
Address
Address
Delimiter
Instruction
Code
Code
Qualifier
or 42
Example: >0135/UAT=07.75{CR}{LF}
Optional
Arguments
Optional
Arguments
From 0 to
n
End of
Packet
Carriage
Return
End of Packet
Carriage Return,
Line Feed
13, 10
2
A.2.1.1 S
Master to Slave: This is the character: < = (ASCII code 61)
Master to Slave: This is the character: > = (ASCII code 62)
Because this is used to provide a reliable indication of the start of packet, these two characters
may not appear anywhere else within the body of the message.
TART OF PACKET
A–3
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A.2.1.2 A
Up to 9999 devices can be uniquely addressed. In EIA-232 and EIA-485 applications, the
permissible range of values is 1 to 9999. It is programmed into a slave unit using the Set Physical
Address (SPA) command.
A.2.1.3 I
This is a three-character alphabetic sequence that identifies the subject of the message. Wherever
possible, the instruction codes have been chosen to have some significance.
For example UAT for Up Converter attenuation, UFQ for Up Converter Frequency, etc. This aids in the
readability of the message, should it be displayed in its raw ASCII form. All command are case sensitive, only
upper case alphabetic characters may be used (A-Z, ASCII codes 65 - 90).
A.2.1.4 I
This is a single character that further qualifies the preceding instruction code.
Code Qualifiers obey the following rules:
1. From Master to Slave, the only permitted values are:
= (ASCII code 61)
? (ASCII code 63)
They have these meanings:
The = code (master to slave) is used as the assignment operator, and is used to indicate that the
parameter defined by the preceding byte should be set to the value of the argument(s) which
follow it.
The ? code (master to slave) is used as the query operator, and is used to indicate that the slave
should return the current value of the parameter defined by the preceding byte.
DDRESS
IMPORTANT
NSTRUCTION CODE
The master sends a packet with the address of a slave - the destination of the packet.
When the slave responds, the address used is the same address, to indicate to the
master the source of the packet. The master does not have its own address.
NSTRUCTION CODE QUALIFIER
For example, in a message from master to slave, UAT=12.50 would mean set the transmit
attenuation to 12.50 dB.
For example, in a message from master to slave, ‘UAT?’ would mean return the current
value of the transmit attenuation.
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2. From Slave to Master, the only permitted values are:
• First, if the master has sent a query code to a slave (for example UAT?, meaning
what’s the Transmit Attenuation?), the slave would respond with UAT=xx.xx,
where xx.xx represents the attenuation in question.
• Second, if the master sends an instruction to set a parameter to a particular value,
then, providing the value sent in the argument is valid, the slave will
acknowledge the message by replying with UAT= (with no message arguments).
The ? code (slave to master) is only used as follows:
• If the master sends an instruction to set a parameter to a particular value, then, if
the value sent in the argument is not valid, the slave will acknowledge the
message by replying with (for example) with UAT? (with no message
arguments).
• This indicates that there was an error in the message sent by the master.
The * code (slave to master) is only used as follows:
• If the master sends an instruction to set a parameter to a particular value, then, if
the value sent in the argument is valid, but the CSAT will not permit that
particular parameter to be changed at that time, the slave will acknowledge the
message by replying with (for example) with UAT* (with no message
arguments).
The ! code (slave to master) is only used as follows:
• If the master sends an instruction code which the slave does not recognise,
the slave will acknowledge the message by echoing the invalid instruction,
followed by the ! character. Example: XYZ!
A–5
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The # code (slave to master) is only used as follows:
• If the master sends an instruction code which the slave cannot currently perform
because of hardware resource issues, the slave will acknowledge the message by
echoing the invalid instruction, followed by the # character.
• This response can only occur if the operator sends two or more ‘hardware
configuration’ type commands without allowing adequate time between
commands for the hardware to be configured.
Example; the operator issued commands to change both the Up Converter
frequency and the down converter frequency with less than 100 milliseconds
between commands
• If this response is returned the command has not been excepted an the operator
must resend the command.
A.2.1.5 M
A.2.1.6 E
ESSAGE ARGUMENTS
Arguments are not required for all messages. All arguments are ASCII codes for the characters 0
to 9 (ASCII 48 to ASCII 57), period (ASCII 46) and comma (ASCII 44).
ND OF PACKET
Master to Slave: This is the Carriage Return character (ASCII code 13)
Slave to Master: This is the two-character sequence Carriage Return, Line Feed. (ASCII code 13,
and code 10.)
Both indicate the valid termination of a packet.
A.3 COMMANDS OR RESPONSES
The commands and responses a reprovided to assist the technican in monitoring and controlling
the unit
.
A–6
Response to query
(Slave to Master)
arguments)
arguments)
UAT=xx.xx
(same format as command arguments)
(same format as command arguments)
(same format as command arguments)
(same format as command arguments)
(same format as command argument)
Query
(Instruction
UFQ? UFQ=xxxx.x (same format as command
code and
qualifier)
UFQ= (message ok)
Response to Command
(Slave to Master)
UFQ? (received ok, but
invalid arguments found)
DFQ? DFQ=xxxx.x (same format as command
DFQ= (message ok)
DFQ? (received ok, but
invalid arguments found)
UAT?
UAT= (message ok)
UAT? (received ok, but
invalid arguments found)
DAT? DAT=xx.xx
DAT= (message ok)
DAT? (received ok, but
invalid arguments found)
UGO? UGO=xx.xx
UGO= (message ok)
UGO? (received ok, but
invalid arguments found)
DGO? DGO=xx.xx
DGO= (message ok)
DGO? (received ok, but
AMP? AMP=x
invalid arguments found)
AMP= (message ok)
AMP? (received ok, but
invalid argument found)
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Arguments
Description of arguments
Note that all arguments are ASCII
for
Command or
Response to
Command
(Instruction
Code and
Parameter
Command or Query.
numeric codes between 48 and 57.
Query
qualifier)
Type
Tx Frequency UFQ= 6 bytes
Tx Frequency in valid range.
Frequency divisible by 1Mhz and 2.5 MHz are allowed.
Example: UFQ= 6836.0
Command or Query.
Rx Frequencyin valid range.
Frequency divisible by 1Mhz and 2.5 MHz are allowed.
Example: DFQ=4622.5
Command or Query.
Tx Attenuation, in dB, between 00.00 and 25.00.
Resolution = 00.25 dB.
Example: UAT=12.75
Command or Query.
Rx Attenuation, in dB, between 00.00 and 20.00.
Resolution = 00.25 dB.
Example: DAT=12.75
Command or Query.
Tx Gain Offset for 1:1 redundancy configurations.
In dB, between -0.00 and -4.00. Resolution = 00.25 dB.
Example: UGO=-1.25
Command or Query.
Rx Gain Offset for 1:1 redundancy configurations.
In dB, between -0.00 and -4.00. Resolution = 00.25 dB.
Example: DGO=-1.25
Command or Query.
Tx Amplifier, where:
0 = Amplifier OFF
1 = Amplifier ON
Example: AMP=1
numerical
numerical
Rx Frequency DFQ= 6 bytes
numerical
Tx Attenuation UAT= 5 bytes
numerical
Rx Attenuation DAT= 5 bytes
numerical
Tx Gain Offset UGO= 5 bytes
numerical
Rx Gain Offset DGO= 5 bytes
value of 0,1
A-7
Tx Amplifier AMP= 1 byte,
Response to query
(Slave to Master)
(same format as command argument)
(same format as command argument)
(same format as command argument)
(same format as command argument)
(same format as command argument)
(same format as command argument)
(same format as command argument)
Query
(Instruction
MUT? MUT=x
code and
qualifier)
MUT=(message ok)
Response to Command
(Slave to Master)
UMU? UMU=x
MUT?(received ok, but
invalid argument found)
UMU=(message ok)
UMU?(received ok, but
invalid argument found)
DMU? DMU=x
DMU=(message ok)
DMU?(received ok, but
invalid argument found)
USM? USM=x
USM=(message ok)
USM?(received ok, But
invalid argument found)
USA? USA=x.x
USA= (message ok)
USA? (received ok, but
invalid arg. found)
DSM? DSM=x
DSM=(message ok)
DSM?(received ok, But
invalid argument found)
DSA? DSA=x.x
DSA= (message ok)
DSA? (received ok, but
invalid arg. found)
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Description of arguments
Note that all arguments are ASCII
Arguments
for
Command or
Response to
Command
(Instruction
Code and
Parameter
Command or Query.
numeric codes between 48 and 57.
Query
qualifier)
Type
Mute Mode MUT= 1 byte,
Mute Mode, where:
0 = Unmuted after Frequency change,
1 = Muted after Frequency change.
Example: MUT=1
Command or Query.
Tx Mute, where:
0 = Transmitter Unmuted,
1 = Transmitter Muted
Example: UMU=1
Command or Query.
Rx Mute, where:
0 = Receiver Unmuted,
1 = Receiver Muted
Example: DMU=1
Command or Query.
Tx Slope Mode, where:
0 =Manual Mode,
1 = Calibrated Mode.
Example: USM=1
Tx Slope Adjust, between 0.0 and 1.0.
Resolution = 0.1.
Example: USA=0.3
Command or Query.
Rx Slope Mode, where:
0 =Manual Mode,
1 = Calibrated Mode.
Example: DSM=1
Rx Slope Adjust, between 0.0 and 1.0.
Resolution = 0.1.
Example: DSA=0.3
value of 0,1
value of 0,1
Tx Mute UMU= 1 byte,
value of 0,1
Rx Mute DMU= 1 byte,
value of 0,1
Tx Slope Mode USM= 1 byte,
Tx Slope Adjust USA= 3 bytes Command or Query.
value of 0,1
A-8
Rx Slope Mode DSM= 1 byte,
Rx Slope Adjust DSA= 3 bytes Command or Query.
Query
(Instruction
Response to query
(Slave to Master)
REF? REF=xxx
code and
qualifier)
REF= (message ok)
Response to Command
(Slave to Master)
(same format as command argument)
REF? (received ok, but
invalid argument found)
REF* (message ok, but
not permitted in current
CLD=x
(same format as command arguments)
CLD?
CLD= (message ok)
CLD? (received ok, but
mode)
invalid arguments found)
AFR=x
AFR?
AFR= (message ok)
(same format as command arguments)
AFR? (received ok, but
invalid arguments found)
ONL=x
ONL?
ONL= (message ok)
(same format as command arguments)
ONL? (received ok, but
invalid arguments found)
LCS=x
LCS?
LCS= (message ok)
(same format as command arguments)
LCS? (received ok, but
invalid arguments found)
LFL=x
LFL?
LFL= (message ok)
(same format as command arguments)
LFL? (received ok, But
invalid arguments found)
5 to 25 Watt C-Band Transceiver Revision 0
Remote Control MN/CSAT607025.IOM
Description of arguments
Note that all arguments are ASCII
Arguments
for
Command or
Response to
Command
(Instruction
Code and
Parameter
numeric codes between 48 and 57.
Query
qualifier)
REF= 3 bytes Command or Query.
Type
Reference
Ref Osc Adjust, between 000 and 255.
Oscillator Adjust
Resolution 001.
Example: REF=087
Note: REF cannot be adjusted when the CSAT
is locked to an external reference source.
Command or Query.
Cold Start, where:
value of 0,1
Cold Start CLD= 1 byte,
0 = Disabled,
1 = Enabled
Example: CLD=1
Command or Query.
Auto Fault Recovery, where:
value of 0,1
AFR= 1 byte,
Auto Fault
Recovery
0 = Disabled,
1 = Enabled
Example: AFR=1
Query Only.
value of 0,1
Online Status N/A 1 byte,
Online status, where:
0 = OFFLINE,
1 = ONLINE
Example: ONL=1
Command or Query.
value of 0,1
LCS= 1 byte,
LNA Current
Source
LNA Current Source, where:
0 = Disabled,
1 = Enabled
Example: LCS=1
Command or Query.
value of 0,1
LNA Fault Logic LFL= 1 byte,
LFL controls whether or not the Summary Fault Relay (SFR)
is affected by the LNA Current window monitor, where:
0 = A LNA Current fault does not effect the SFR,
1 = A LNA Current fault will effect the SFR.
Example: LFL=1
A-9
Query
(Instruction
N/A
Response to query
(Slave to Master)
N/A
code and
qualifier)
CAL= (message ok)
Response to Command
(Slave to Master)
XRF=x
XRF?
XRF= (message ok)
(same format as command arguments)
XRF? (received ok, But
invalid arguments found)
LCW=xx
(same format as command arguments)
LCW?
LCW= (message ok)
LCW? (received ok, but
invalid arguments found)
5 to 25 Watt C-Band Transceiver Revision 0
Remote Control MN/CSAT607025.IOM
Description of arguments
Note that all arguments are ASCII
Arguments
for
Command or
Response to
Command
(Instruction
Code and
Parameter
numeric codes between 48 and 57.
Query
qualifier)
CAL= NoneCommand only.
Type
Calibrate LNA
This command is used to set the calibration point for
the LNA current alarm feature.
Current
Command or Query.
Example: CAL=
LCW= 2 bytes,
LNA Current
LNA Current Monitor Window, this command allows the user to set
numerical
Window
the alarm window in ± % of the calibrated LNA current. Valid inputs
are 20 to 50 in increments of 5. In addition, setting the value to 99
disables the alarm function.
Command or Query.
XRF controls whether or not the Software monitors the external
refernece source. If enabled and no source is present a fault will be
reported.
0 = A Ext Reference not monitored
1 = A Ext Reference is monitored and the lock state reported.
Example: LCW=30, set the alarm window at ± 30%.
value of 0,1
XRF= 1 byte,
External
Reference Fault
Logic
Example: XRF=1
A-10
Query
(Instruction
CGC= FFFF.FAA.AAMS
Response to query
code and
Response to Command
B.BGG.GGZffff.faa.aams
(Slave to Master)
CGC?
qualifier)
CGC= (message ok)
CGC? (received ok,
(Slave to Master)
b.bgg.ggNRCXOOOLWWDeeeeeee
(same format as command arguments)
But invalid arguments
found)
5 to 25 Watt C-Band Transceiver Revision 0
Remote Control MN/CSAT607025.IOM
Description of arguments
Note that all arguments are ASCII
Arguments
for
Command or
Response to
Command
(Instruction
Code and
Parameter
Command or Query. Global configuration of Unit, in the form:
FFFF.FAA.AAMSB.BGG.GGZffff.faa.aamsb.b
gg.ggNRCXOOOLWWDeeeeeee, where:
numeric codes between 48 and 57.
Query
qualifier)
CGC= 60 bytes,
Type
CSAT Global
F = Tx Frequency – same as UFQ= (6 bytes)
with numerical
entries fixed
value entries,
and delimiters
Configuration
A = Tx Attenuation – same as UAT= (5 bytes)
M = Tx Mute – same ad UMU= (1byte)
S = Tx Slope Mode – same as USM= (1 byte)
B = Tx Slope Value – same as USA= (3 bytes)
G = Tx Gain Offset – same as UGO= (5 bytes)
Z = Tx Amplifier State – same as AMP= (1 byte)
f = Rx Frequency – same as UFQ= (6 bytes)
a = Rx Attenuation – same as UAT= (5 bytes)
m = Rx Mute – same ad UMU= (1byte)
s = Rx Slope Mode – same as USM= (1 byte)
b = Rx Slope Value – same as USA= (3 bytes)
g = Rx Gain Offset – same as UGO= (5 bytes)
N = Mute Mode – same as MUT= (1 byte)
R = Auto Fault Recovery – same as AFR= (1 byte)
C = Cold Start Mode – same as CLD= (1 byte)
X = Ext Ref Fault Logic – same as XRF= (1 byte)
O = Ref Oscillator Adjust – same as REF= (3 bytes)
L = LNA Current Source – same as LCS= (1 byte)
W = LNA Current Window – same as LCW= (3 bytes)
D = LNA Fualt Logic – same as LFL= (1 byte)
e = expansion (7 bytes), set to ‘0’
Example: CGC=6836.012.75000.3-0.0014622.0
12.75000.3-0.00110108719900000000
A-11
Query
(Instruction
RAM=x
Response to query
(Slave to Master)
RAM?
code and
qualifier)
RAM= (message ok)
Response to Command
(Slave to Master)
(same format as command arguments)
RAM? (received ok, But
invalid arguments found)
N/A
N/A
RTG= (message ok)
RTG? (received ok, But
invalid arguments found)
(same format as command arguments)
SPA? SPA=xxxx
SPA= (message ok)
SPA? (received ok, but
invalid arguments found)
(same format as command arguments)
SBR? SBR=xxxx
SBR= (message ok)
SBR? (received ok, but
invalid arguments found)
(same format as command arguments
DAY? DAY=xxxxxx
DAY= (message ok)
DAY? (received ok, but
invalid arguments found)
DAY* (message ok, but
not permitted in current
mode
5 to 25 Watt C-Band Transceiver Revision 0
Remote Control MN/CSAT607025.IOM
Description of arguments
Note that all arguments are ASCII
Arguments
for
Command or
Response to
Command
(Instruction
Code and
Parameter
Command or Query.
numeric codes between 48 and 57.
Query
qualifier)
RAM= 1 byte,
Type
Redundancy
RAM controls whether or not the Redundancy Controller is in
automatic or manual mode, where:
0 = Manual Mode,
1 = Auto Mode.
Example: RAM=1
RTG= sent to the online CSAT will cause the Redundancy Box to
value of 0,1
RTG= None Command only.
Controller Box
Auto/Manual
Mode
Redundancy
Controller Box
Toggle
toggle the Tx and Rx switches.
Command or Query.
Example: RTG=
4 bytes,
SPA=
Remote
numerical
Address
Physical Address - between 0001 and 9999.
(Physical
Resolution 0001.
Example: SPA=0890
Address)
SBR= 4 bytes Command or Query.
Remote Baud
Baud Rate, as follows:
rate
A command in the form mmddyy, where; dd = day of the month,
between 01 and 31, mm = month of the year, between 01 and 12
and yy = year, between 97 and 96 (1997 to 2000, then 2000 to
2096)
1200 = 1200 baud,
2400 = 2400 baud,
4800 = 4800 baud,
9600 = 9600 baud,
19K2 = 19200 baud.
38K4 = 38400 baud.
numerical
Set RTC Date DAY= 6 bytes,
Example: DAY=042457 would be April 24, 2057
A-12
Response to query
(Slave to Master)
(same format as command arguments
(see description for details of arguments)
arguments)
arguments)
Query
(Instruction
TIM? TIM=xxxxxx
code and
qualifier)
TIM= (message ok)
Response to Command
(Slave to Master)
TIM? (received ok, but
invalid arguments found)
TIM* (message ok, but
not permitted in current
mode
CAA= (message ok) N/A N/A
IAP=(message ok) N/A N/A
N/A LNA? LNA=YY..ss
N/A TNA? TNA=xx (see description for details of
N/A RSN? RSN=xxxxxx (see description for details of
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Remote Control MN/CSAT607025.IOM
Description of arguments
Note that all arguments are ASCII
Arguments
for
Command or
Response to
Command
(Instruction
Code and
Parameter
A command in the form hhmmss, indicating the time from midnight,
numeric codes between 48 and 57.
Query
qualifier)
Type
Set RTC Time TIM= 6 bytes,
where hh = hours, between 00 and 23; mm = minutes, between 00
and 59, and ss = seconds, between 00 and 59
numerical
Example: TIM=231259 would be 23 hours, 12 minutes and 59
seconds from midnight.
CAA= None Command only
Clear All Stored
Instructs the slave to clear all Stored Events
This command takes no arguments.
Alarms
Instructs the unit to zero the retrieved alarms pointer to allow the
user to retrieve the complete stored alarms log.
IAP= NoneCommand only
Re-Initialize
Retrieved
Alarms Point
CSAT returns the oldest 5 Stored Events that have not yet been
read over the remote control. Reply format: Sub-body{CR}Sub-
body{CR}Sub-body{CR}Sub-body{CR}Sub-body, where Sub-body=
YYYYYYYYYY ZZ mmddyy hhmmss,
145 bytesQuery only
N/A
List New Alarms
(Retrieve next 5
unread Stored
Alarms)
YYYYYYYYYY being the fault description.
ZZ being the alarm typr.
FT = Fault
OK = Clear
IF = Information
If there are no new events, the CSAT will reply with LNA*. Note: the
CSAT incorporates a circular buffer
capable of holding 100 events/alarms.
Query only.
CSAT returns the number of Stored Events which remain unread, in
the form xx. Note: This means unread over the remote control –
viewing the stored events from the front panel of the modem does
numerical
2 bytes,
N/A
Total New
Alarms
(Retrieve
Number of
unread Stored
not affect this value.
Example reply: TNA=18’cr’’lf’
Alarms)
Query only.
N/A 6 bytes,
Retrieve Serial
Used to Query the units 6 digit serial number.
Slave returns its S/N, in the form xxxxxx.
alpha
numerical
Number
Example: RSN=C00165’cr’’lf’
C00000 to
C99999
A-13
Response to query
(Slave to Master)
arguments)
arguments)
arguments)
arguments)
Query
(Instruction
code and
qualifier)
N/A RET? RET=x….x (see description for details of
Response to Command
(Slave to Master)
CID? CID=x….x (see description for details of
CID= (message ok)
CID? (received ok, but
invalid arguments found)
N/A RCS? RCS=x….x (see description for details of
N/A RLS? RLS=x….x (see description for details of
5 to 25 Watt C-Band Transceiver Revision 0
Remote Control MN/CSAT607025.IOM
Description of arguments
Note that all arguments are ASCII
Arguments
for
Command or
Response to
Command
(Instruction
Code and
Parameter
Query only.
numeric codes between 48 and 57.
Query
qualifier)
N/A 20 bytes,
Type
Retrieve
alpha
Equipment
CSAT returns a string indicated the Model Number and the value of
internal software revision installed
Example: RET=CSAT-6070/025 V1.02’cr’’lf’
Command or Query.
Sets or queries the user-defined Circuit ID string, which is a fixed
length of 24 characters.
Valid characters include:
Space ( ) * + _ , . / 0-9 A-Z
Query only.
Used to Query the configuration status of the CSAT
Example: RCS=’cr’
UFQ=6905.0’cr’
DFQ=4525.0’cr’
UAT=12.50’cr’
DAT=01.50’cr’
ONL=YES’cr’
XMT=ON’cr’
AMP=ON’cr’
UMU=OFF’cr’
RCV=ON’cr’
DMU=OFF’cr’
CLD=OFF’cr’
AFR=ON’cr’
EXT=NO ’cr’’lf’
Query only.
Used to Query the LNA status of the CSAT
Example: RLS=’cr’
LCS=ON’cr’
LCW=40’cr’
LFL=1’cr’’lf’
numerical
Type
alpha
numerical
CID= 24 bytes,
Circuit
Identification
Message
alpha
numerical
N/A 113 bytes,
Retrieve
Configuration
Status
alpha
numerical
N/A 23 bytes,
Retrieve LNA
Status
A-14
Query
(Instruction
Response to query
(Slave to Master)
code and
qualifier)
arguments)
arguments)
arguments)
Response to Command
(Slave to Master)
Description of arguments
Note that all arguments are ASCII
numeric codes between 48 and 57.
N/A RUS? RUS=x….x (see description for details of
Query only.
Used to Query the utility status of the CSAT
Example: RUS=’cr’
BDR=9600’cr’
REF=087’cr’
N/A RRS? RRS=x….x (see description for details of
USA=0.3’cr’
DSA=0.4’cr’’lf’
Query only.
Used to Query the utility status of the CSAT
Example: RRS=’cr’
R 5V=5.0’cr’
R 12V=11.8’cr’
TX SW=OK’cr’
N/A RMS? RMS=x….x (see description for details of
RX SW=OK’cr’’lf’
Query only.
Used to Query the maintenance status of the CSAT
Example: RMS=’cr’
24VT=023.9’cr’
20VT=020.3’cr’
12VT=012.0’cr’
10VT=010.2’cr’
P5VT=005.0’cr’
N5VT=-05.0’cr’
USYN=008.2’cr’
UIFL=003.9’cr’
DSYN=006.3’cr’
DIFL=003.8’cr’
REFV=002.9’cr’
LNAC=081.9’cr’
FANC=541.0’cr’
UTMP= 37.0’cr’
POWR=25.0-’cr’
DTMP= 34.0’cr’’lf’
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Remote Control MN/CSAT607025.IOM
Arguments
for
Command or
Response to
Command
(Instruction
Code and
Parameter
Query
qualifier)
N/A 32 bytes,
Type
Retrieve Utility
alpha
Status
numerical
alpha
numerical
N/A 37 bytes,
Retrieve
Redundancy
Status
alpha
numerical
N/A 175 bytes,
Retrieve
Maintenance
Status
A-15
Query
(Instruction
Response to query
(Slave to Master)
code and
qualifier)
N/A RAS? RAS=x….x (see description for details of
Response to Command
(Slave to Master)
arguments)
5 to 25 Watt C-Band Transceiver Revision 0
Remote Control MN/CSAT607025.IOM
Description of arguments
Note that all arguments are ASCII
Arguments
for
Command or
Response to
Command
(Instruction
Code and
Parameter
Query only.
numeric codes between 48 and 57.
Query
qualifier)
N/A 171 bytes,
Type
Retrieve Alarm
Used to Query the Alarm status of the CSAT
Example: RAS=’cr’
text
Status
24VLT=OK’cr’
20VLT=OK’cr’
12VLT=OK’cr’
10VLT=OK’cr’
P5VLT=OK’cr’
N5VLT=OK’cr’
USYNH=OK’cr’
UIFLO=OK’cr’
DSYNH=OK’cr’
DIFLO=OK’cr’
REFLD=OK’cr’
LNACR=OK’cr’
FANMN=OK’cr’
HSTMP=OK’cr’
SHTDN=OK’cr’
IICFT=OK’cr’
CHKSM=OK’cr’
BATLW=OK’cr’
REDSW=OK’cr’’lf’
A-16
Query
(Instruction
Response to query
(Slave to Master)
code and
qualifier)
arguments)
arguments)
arguments)
Response to Command
(Slave to Master)
Description of arguments
Note that all arguments are ASCII
numeric codes between 48 and 57.
N/A CCS? CCS=x….x (see description for details of
Query only.
Used to Query the Configuration status of the CSAT
B.4 Configuring A Redundant System .........................B-9
The CSAT-6070, 5 to 25 Watt C-Band Tranceiver, is capable of operating in both stand-alone
and redundant configurations. The CSAT fully redundant system provides automatic detection,
switching, and status for both its configuration and health. The system is designed such that
stand-alone operation is a functional sub-set of the fully redundant CSAT system. This provides
the user with transparent functionality regardless of the mode or complexity the system has been
setup to operate in.
B.1 R
RF
FROM
FEED
RF
TO
FEED
EDUNDANT SYSTEM
Figure B-1 provides a block diagram for a typical CSAT redundant system.
CPR22
WG
A1
Tx
FILTER
CPR13
LNA WG SWITCH
W1
CPR22
W2
CPR22
W1
CPR22
WG
A2
LNA 1
T1
LNA 2
C1
C1
W3
CPR13
A3
Tx WG SWITCH
W3
CPR13
TRANSCEIVER
DOWN
RF IN
IF OUT
CONV
Com
M&C
EXT REF
UP
RF OUTIF IN
CONV
A4
C2
C3
T2
CSAT
RF INIF OUT
DOWN
CONV
M&C
EXT REF
UP
RF OUT
CONV
A4
CSAT
6
Com
IF IN
C4
C4
OPTIONAL
OPTIONAL
C5
C5
C4
C4
RSU-5060
19
CONT
UNIT
19
70 MHz
OUTPUT
10 MHz
INPU
OPTIONAL
COM
196
70 MHz
INTPUT
Figure B-1. Typical CSAT Redundant System
B–1
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B.2 RSU-5060 INTERFACES
B.2.1 E
The RSU-5060 contains five primary electrical control interface connectors, (J1 through J5) and
six IF signal connectors (J6 through J11) .
LECTRICAL INTERFACE
Table B-1. RSU-5060 Interface Connectors
ConnectorFunction Connector Type
J1
J2 Rx Waveguide Switch interface MS3112E10-6S
J3
J4 Tx Waveguide Switch interface MS3112E10-6S
J5 Customer M&C interface MS3112E14-19S
J6 Tx IF Input from Customer Equipment Type N, Female
J7
J8
J9 Rx IF Output to Customer Equipment Type N, Female
J10
J11
CSAT
CSAT
Tx IF Output to
Tx IF Output to
Rx IF Input from
Rx IF Input from
Unit A interface
Unit B interface
CSAT
CSAT
CSAT
CSAT
A
B
A
B
MS3112E14-19S
MS3112E14-19S
Type N, Female
Type N, Female
Type N, Female
Type N, Female
B–2
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Redundant Systems MN/CSAT607025.IOM
B.2.1.1 CSAT U
The J1 interface connector (19-pin) provides the communications and control signals as well as
the +24 VDC power signal necessary between CSAT Unit A and the RSU-5060.
Pin Signal Name Type Description
A RS485 RX+ Pass-thru RS-485 Rx+, From M&C to CSAT Unit A
B RS485 RX- Pass-thru RS-485 Rx-, From M&C to CSAT Unit A
C RS485 TX+ Pass-thru RS-485 Tx+, To M&C from CSAT Unit A
D RS485 TX- Pass-thru RS-485 Tx-, To M&C from CSAT Unit A
E n.c.
F REDUND_FLT* Output Fault Signal to CSAT A from RSU-5060
G n.c.
H AUXCOM_RD Output RS2332 from RSU-5060 to CSAT A
J AUXCOM_TD Input RS232 from CSAT A to RSU-5060
K FAULT COMMON Output
L CSAT A FLT – NO Input Shorted to pin K = O.K. , open = Faulted
M n.c.
N n.c.
P POSITION A* Output Ground = A Online, Open = A Offline
R A +24V Input +24VDC input power
S REDUNDANCY A* Output Ground signal to CSAT A
T GROUND Passive
U GROUND Passive
V n.c.
NIT
A I
NTERFACE
Table B-2 . CSAT A Signal Description (Connector J1)
, J1
B.2.1.2 RX W
The J2 interface connector (6-pin) provides the control and indicator signals between the Rx
Waveguide Switch and the RSU-5060.
AVEGU IDE SWITCH INTERFACE
Table B-3 . Rx Waveguide Switch Signal Description (Connector J2)
Pin Signal Name Type Description
A POS A CMD Output 24 VDC, 350 millisecond, Command Pulse
B CMD RETURN Passive Grounded internal to RSU-5060
C POS B CMD Output 24 VDC, 350 millisecond, Command Pulse
D POS A INDICATOR Input Shorted to Pin E = POSITION A
E IND COMMOM Passive Grounded internal to RSU-5060
F POS B INDICATOR Input Shorted to Pin E = POSITION B
, J2
B–3
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B.2.1.3 CSAT U
The J3 interface connector (19-pin) provides the communications and control signals as well as
the +24 VDC power signal necessary between CSAT Unit B and the RSU-5060.
Pin Signal Name Type Description
A RS485 RX+ Pass-thru RS-485 Rx+, From M&C to CSAT Unit B
B RS485 RX- Pass-thru RS-485 Rx-, From M&C to CSAT Unit B
C RS485 TX+ Pass-thru RS-485 Tx+, To M&C from CSAT Unit B
D RS485 TX- Pass-thru RS-485 Tx-, To M&C from CSAT Unit B
E n.c.
F REDUND_FLT* Output Fault Signal to CSAT B from RSU-5060
G n.c.
H AUXCOM_RD Output RS2332 from RSU-5060 to CSAT B
J AUXCOM_TD Input RS232 from CSAT B to RSU-5060
K FAULT COMMON Output
L CSAT B FLT – NO Input Shorted to pin K = O.K. , open = Faulted
M n.c.
N B SELECT* Output Ground signal to CSAT B
P POSITION B* Output Ground = B Online, Open = B Offline
R B +24V Input +24VDC input power
S REDUNDANCY B* Output Ground signal to CSAT B
T GROUND Passive
U GROUND Passive
V n.c.
NIT
B I
NTERFACE
Table B-4. CSAT B Signal Description (Connector J3)
, J3
B.2.1.4 TX W
The J4 interface connector (6-pin) provides the control and indicator signals between the Tx
Waveguide Switch and the RSU-5060
B.2.1.5 M&C I
The J5 interface connector (19-pin) provides the communications and control signals between the
RSU-5060 and the customer M&C system.
AVEGUIDE SWITCH INTERFACE
, J4
.
Table B-5. Tx Waveguide Switch Signal Description (Connector J4)
Pin Signal Name Type Description
A POS A CMD Output 24 VDC, 350 millisecond, Command Pulse
B CMD RETURN Passive Grounded internal to RSU-5060
C POS B CMD Output 24 VDC, 350 millisecond, Command Pulse
D POS A INDICATOR Input Shorted to Pin E = POSITION A
E IND COMMOM Passive Grounded internal to RSU-5060
F POS B INDICATOR Input Shorted to Pin E = POSITION B
NTERFACE
, J5
B–4
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Table B-6. M&C Signal Description (Connector J5)
Pin Signal Name Type Description
A RS485 RX+ Pass-thru RS-485 Rx+, From M&C to CSAT A&B
B RS485 RX- Pass-thru RS-485 Rx-, From M&C to CSAT A&B
C RS485 TX+ Pass-thru RS-485 Tx+, To M&C from CSAT A&B
D RS485 TX- Pass-thru RS-485 Tx-, To M&C from CSAT A&B
E B ONLINE CLOSED Output Shorted to pin K = CSAT B Online
F n.c.
G n.c.
H n.c.
J n.c.
K IND/FLT COMMON Input
L A FAULT OPEN Output Shorted to pin K = CSAT A Faulted
M B FAULT OPEN Output Shorted to pin K = CSAT B Faulted
N n.c.
P RED AUTO/MAN Input Ground = Manual, Open = Auto
R n.c.
S A ONLINE CLOSED Output Shorted to pin K = CSAT A Online
T GROUND Passive
U GROUND Passive
V SWITCH CMD Input Momentary short to GND, otherwise OPEN
B.2.1.6 TX IF I
The Tx IF input signal is fed from the customers equipment to the RSU-5060 at connector J6.
The RSU-5060 contains a power splitter which feeds the IF input signal to both CSAT A and
CSAT B via the J7 and J8 connectors. The IF power at J7 and J8 will nominally be 3dB less than
the IF input power at J6.
NTERFACES
, J6, J7,
AND
J8
B–5
5 to 25 Watt C-Band Transceiver Revision 0
Redundant Systems MN/CSAT607025.IOM
B.2.2 RX IF I
The Rx IF output signal is fed to the customers equipment from the RSU-5060 at
connector J9. The RSU-5060 contains a power combiner which takes the IF input signals
from both CSAT A and CSAT B via the J10 and J11 connectors and provides a single
output signal at J9. The IF output power at J9 will nominally be 3dBm less than the IF
input power at either J10 or J11.
B.2.3 M
ECHANICAL INTERFACE
The RSU-5060 is housed in a weather resistant, sealed aluminum housing with five
external circular connectors and six Female N-Type connectors. The mechanical
dimensions and mounting interface are shown in Chapter 1.
NTERFACES
, J9 – J11
B–6
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