Comnet FDX57M1, FDX57S1 User Manual

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INSTALLATION AND OPERATION MANUAL
FDX57(M,S)
MULTI-PROTOCOL RS232/422/485 DATA TRANSCEIVER FEATURING SELF-HEALING RING OPERATION
The ComNet™ FDX57(M)(S) series Self-Healing Ring Transceiver unit is a fully­digital transceiver designed for implementing full RS232, RS422 or RS485 2 or 4-wire traffic signalization/communications data networks of the highest possible reliability. A network of FDX57 units can support one full-duplex data channel or two half-duplex data channels. These transceivers also feature data translation to convert between data protocols. Full data re-clocking and regeneration permit an almost unlimited number of transceiver/controller units to be used within the network. These environmentally hardened transceivers are ideal for use in unconditioned out-of-plant or roadside installations.
Utilizing wave division multiplexing technology (WDM), only one optical fiber is required between units to implement a fully self-healing ring.
Bi-color (Red/Green) LED indicators are provided for rapidly ascertaining equipment operating status including the location of fiber breaks. See Figure 8 on Page 4 for an explanation of LED indications.
These units are interchangeable between stand-alone or card-cage mount configurations. See Figure A on Page 6 for mounting instructions.
See Figures 1 – 9 for complete installation details.
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INSTALLATION AND OPERATION MANUAL FDX57(M)(S)
FIGURE 1 – FDX57 FIBER CONNECTIONS
MULTIMODE OR SINGLE MODE OPTICAL FIBER (DEPENDING ON MODEL)
Optical Port A must be connected to Optical Port B on another FDX57 unit. Similarly, Optical Port B must be connected to Optical Port A on another FDX57 unit.
BLACK BLACK WITH WHITE STRIPE
Power Supply: Surface Mount: 8–15 VDC @ 4W Rack Mount: From Rack
FIGURE 2 – FDX57
NOTE: Remove Electrical Connector
for Rack Mount Units
REAR PANELFRONT PANEL
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INSTALLATION AND OPERATION MANUAL FDX57(M)(S)
FIGURE 5 – SWITCH POSITIONS
Switch
Located on front panel.
The first two switches set the data type, the third sets the Master/Remote Mode.
RS232 Data
1 2 3
RS485 2-Wire, Sensornet
Data
1 2 3
Master Mode
1 2 3
RS422, Bi-Phase or
Manchester Data
1 2 3
RS485
4-Wire Data
1 2 3
Remote Mode
1 2 3
There are two virtual data channels shared between all FDX57 units in a system: a Master channel and a Remote channel. The Master/Remote Mode switch sets the data channel used by the equipment connected to each FDX57 unit in the system. The behavior of a Master and Remote depends on the data type (set by switches 1 and 2):
RS232, RS422, RS485 (4-wire):
Units in Master Mode transmit data to all units set to Remote Mode. Units in Remote Mode transmit data to all units set to Master Mode.
There is no limit to the number of Masters or Remotes in a system as long as the equipment connected to the FDX57 can handle multiple Masters and multiple Remotes. Most applications requiring Master/Remote communications would use just one Master and multiple Remotes. Masters can communicate with all Slaves, but not with other Masters. Remotes can communicate with all Masters, but not with other Remotes.
RS485 (2-wire):
Units in Master Mode transmit data to all units set to Master Mode. Units in Remote Mode transmit data to all units set to Remote Mode.
The concept of Master and Remote are not used with RS485 (2-wire) mode. Rather, the Master/Remote Mode switch simply sets which of two independent data channels each unit will use. All Masters can communicate with each other, but not with Remotes. All Remotes can communicate with each other, but not with Masters.
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INSTALLATION AND OPERATION MANUAL FDX57(M)(S)
FIGURE 6 – DATA CONNECTIONS
RS232
RS422
Bi-phase or
Manchester
2-Wire
RS485,
Sensornet
4-Wire
RS485
Customer
Equipment FDX57
Data Transmit
Data Receive
Signal Ground
Data Out (+)
Data Out (–)
Data In (+)
Data In (–)
Data Out (+)
Data Out (–)
Data (A)
Data (B)
Data Out (A)
Data Out (B)
Data In (A)
Data In (B)
DIN(–)
DOUT(–)
GND
DIN(+)
DIN(–)
DOUT(+)
DOUT(–)
DIN(+)
DIN(–)
DIN(+)
DIN(–)
DIN(+)
DIN(–)
DOUT(+)
DOUT(–)
DOUT(–)
DIN(–)
GND
DOUT(+)
DOUT(–)
DIN(+)
DIN(–)
DOUT(+)
DOUT(–)
DIN(+)
DIN(–)
DOUT(+)
DOUT(–)
DIN(+)
DIN(–)
Customer
EquipmentFDX57
Data Receive
Data Transmit
Signal Ground
Data In (+)
Data In (–)
Data Out (+)
Data Out (–)
Data In (+)
Data In (–)
Data (A)
Data (B)
Data In (A)
Data In (B)
Data Out (A)
Data Out (B)
FIGURE 7 – 7-PIN DATA CONNECTOR
BIAS Current limited +5V connection. This terminal can be used as a
connection for pull-up resistors, if required.
ALARM Alarm relay output. Indicates fault conditions. The relay is internally
connected to the GND terminal when no faults are detected (i.e. a normally closed relay). The relay circuit opens when a fault is detected anywhere in the system.
GND: Signal ground reference. This terminal can be also be used as a
connection for pull-down resistors, if required.
DIN+/DIN- Electrical data inputs. See Figure 6 for data connections.
DOUT+/DOUT- Electrical data outputs. See Figure 6 for data connections.
FIGURE 8 – LED INDICATORS
LINK A LINK B DIN DOUT STATUS POWER
GREEN Unit In Sync Unit In Sync Data Activity Data Activity System OK. No Alarm Unit Powered Up
RED Unit Not In Sync Unit Not In Sync Fault Detected. Alarm Condition.
OFF No Data Activity No Data Activity Unit Powered Down
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INSTALLATION AND OPERATION MANUAL FDX57(M)(S)
FIGURE 9 – FAULT CONDITIONS
A fault condition is when a FDX57 unit system loses power or optical link. The FDX57 provides three indicators to help identify when and where fault conditions occur in a system:
1. ALARM relay output
2. STATUS LED
3. LINK A and LINK B LEDs
When a fault occurs, the ALARM relay on every FDX57 in the system goes from closed to open. In addition, the STATUS LED on every FDX57 in the system goes from solid green to solid red. The LINK A and LINK B LEDs can then be used to identify the actual location of the fault based on their color and pattern:
Solid Green Optical link has been established between this optical port and the adjacent FDX57 over fiber.
Furthermore, every other unit in the system is also reporting that link has been established. There are no faults in the system.
Solid Red Optical link over this port has been lost.
This could be due to a broken fiber, a bad connection, or loss of power at the adjacent unit.
Blinking Green/Red Optical link has been established between this optical port and the adjacent FDX57 over fiber.
However, a fault condition has been detected somewhere in the system. The LINK LED will be green for a period of time, and then flash red some number of times. The number of red flashes indicates the location of the fault by “hops” around the ring. If the LED flashes red three times, then the location of the fault is three hops away (i.e. three FDX57 units away). For larger systems with faults greater than 9 hops away, the LED will use a combination of long and short red flashes. Each long flash indicates 10 hops. Each short flash indicates 1 hop. For example, a fault 47 hops away would be encoded as 4 long red flashes, followed immediately by 7 short red flashes. The pattern repeats indefinitely until the fault is resolved.
EXAMPLE
B
FDX57S1
Unit 1
A
DIN/DOUT DIN/DOUT DIN/DOUT DIN/DOUT
D
The diagram above shows the connections for a system of four FDX57 units. The four th unit has an audible alarm connected to its ALARM relay. The alarm relay is normally closed. Ever y unit’s LINK A, LINK B, and STATUS LEDs will be solid green.
FDX57S1
Unit 1
A
DIN/DOUT DIN/DOUT DIN/DOUT DIN/DOUT
D
The diagram above shows how this system will respond to an optical fiber break between unit 2 and unit 3. The ALARM relay on every node will go from closed to an open circuit to indicate an alarm condition and the STATUS LED on every node will go from solid green to solid red. The audible alarm connected to unit 4 will sound. The LINK A and LINK B LEDs on each unit will identify where the fault occurred:
OPTICAL FIBER
B
FDX57S1
Unit 2
D
OPTICAL FIBER
B
FDX57S1
Unit 2
D
A
BROKEN
FIBER
A
B
B
FDX57S1
Unit 3
D
FDX57S1
Unit 3
D
A
A
B
FDX57S1
Unit 4
ALARM
D
AB
A
B
FDX57S1
Unit 4
ALARM
D
Unit 1 The LINK A LED will be green for a time, then flash red 1 time. The LINK B LED will be green for a time, then flash red 2 times. Unit 2 The LINK A LED will be solid red. The LINK B LED will be green for a time, then flash red 3 times. Unit 3 The LINK A LED will be green for a time, then flash red 3 times. The LINK B LED will be solid red. Unit 4 The LINK A LED will be green for a time, then flash red 2 times. The LINK B LED will be green for a time, then flash red 1 time.
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MECHANICAL INSTALLATION INSTRUCTIONS
INSTALLATION CONSIDERATIONS
This fiber-optic link is supplied as a Standalone/Rack module. Units should be installed in dry locations protected from extremes of temperature and humidity.
C1-US, C1-EU, C1-AU OR C1-CH CARD CAGE RACKS
CAUTION: Although the units are hot-swappable and may be installed
without turning power off to the rack, ComNet recommends that the power supply be turned off and that the rack power supply is disconnected from any power source. Note: Remove electrical connector before installing in card cage rack.
1. Make sure that the card is oriented right side up, and slide it into the card guides in the rack until the edge connector at the back of the card seats in the corresponding slot in the rack’s connector panel. Seating may require thumb pressure on the top and bottom of the card’s front panel.
CAUTION: Take care not to press on any of the LEDs.
2. Tighten the two thumb screws on the card until the front panel of the card is seated against the front of the rack.
WARNING: Unit is to be used with a Listed Class 2 or LPS power supply rated 9-12 VDC @ 1A.
FIGURE A
Dimensions are for a standard ComNet™ one slot module
.156 [3.96 mm]
.313 [7.95 mm]
IMPORTANT SAFEGUARDS: A) Elevated Operating Ambient - If installed in a closed or multi-unit rack
assembly, the operating ambient temperature of the rack environment may be greater than room ambient. Therefore, consideration should be given to installing the equipment in an environment compatible with the maximum ambient temperature (Tma) specified by the manufacturer.
B) Reduced Air Flow - Installation of the equipment in a rack should be such
that the amount of air flow required for safe operation of the equipment is not compromised.
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