Dissemination or reproduction of this document, or evaluation and communication of its contents, is not authorized except where expressly
permitted. Violations are liable for damages. All rights are reserved, particularly for the purposes of patent application or trademark registration.
This document contains proprietary information, which is protected by copyright. All rights are reserved. No part of this document may be
photocopied, reproduced or translated to another language without the prior written consent of RuggedCom Inc.
Disclaimer Of Liability
We have checked the contents of this manual against the hardware and software described. However, deviations from the description cannot
be completely ruled out.
RuggedCom shall not be liable for any errors or omissions contained herein or for consequential damages in connection with the furnishing,
performance, or use of this material.
The information given in this document is reviewed regularly and any necessary corrections will be included in subsequent editions. We appreciate
any suggested improvements. We reserve the right to make technical improvements without notice.
Registered Trademarks
ROX™, RuggedRated™ and eRSTP™ are trademarks of RuggedCom Inc. RuggedRouter® is a registered trademark of RuggedCom Inc.
RuggedBackbone™ is a trademark of RuggedCom Inc. Other designations in this manual might be trademarks whose use by third parties for
their own purposes would infringe the rights of the owner.
Linux® is the registered trademark of Linus Torvalds in the U.S. and other countries.
The registered trademark Linux® is used pursuant to a sublicense from LMI, the exclusive licensee of Linus Torvalds, owner of the mark on
a world-wide basis.
Warranty
Five (5) years from date of purchase, return to factory. For warranty details, visit www.RuggedCom.com or contact your customer service
representative.
Contacting RuggedCom
Corporate HeadquartersUS HeadquartersEurope Headquarters
RuggedCom Inc.
Federal Communications Commission Radio Frequency Interference
Statement
This equipment has been tested and found to comply with the limits for a Class A digital device
pursuant to Part 15 of the FCC Rules. These limits are designed to provide reasonable protection
against harmful interference when the equipment is operated in a commercial environment. This
equipment generates, uses and can radiate radio frequency energy and, if not installed and used in
accordance with the instruction manual, may cause harmful interference to radio communications.
Operation of this equipment in a residential area is likely to cause harmful interference in which
case the user will be required to correct the interference at his own expense.
Caution: LASER
This product contains a LASER system and is classified as a CLASS 1 LASER
PRODUCT. Use of controls or adjustments or performance of procedures other than
those specified herein may result in hazardous radiation exposure.
Caution: Service
This product contains no user-serviceable parts. Attempted service by unauthorized
personnel shall render all warranties null and void.
Changes or modifications not expressly approved by RuggedCom Inc. could invalidate
specifications, test results, and agency approvals, and void the user’s authority to
operate the equipment.
Should this device require service, refer to Chapter 7, Warranty in this guide.
Caution: Physical Access
This product should be installed in a restricted access location where access can only
be gained by service personnel or users who have been instructed about the reasons
for the restrictions applied to the location and about any precautions that shall be taken;
and access is through the use of a tool or lock and key, or other means of security,
and is controlled by the authority responsible for the location.
The RuggedBackbone™ RX1512 is a cost-efficient, rugged layer 3 switch and router. The
RX1512’s modular and field replaceable platform allows you to select WAN, serial, and Ethernet
options, making it ideally suited for electric power utilities, the industrial plant floor, and traffic
control systems. The appliance’s compact form factor makes it ideal for pole mount applications
or installation in restricted spaces.
The RX1512 is designed to the RuggedRated™ specification, providing a high level of immunity to
electromagnetic interference (EMI) and heavy electrical surges typical of the harsh environments
found in many industrial applications. An operating temperature range of -40°C to +85°C (-40°F
to +185°F) allows the RX1512 to be placed in almost any location.
1.2. Feature Highlights
Cyber Security Features
• Multi-level passwords
• SSH/SSL encryption
• Enable/disable ports, MAC-based port security
• Port-based network access control (802.1x)
• VLAN (802.1Q) to segregate and secure network traffic
• RADIUS centralized password management
• SNMPv3 encrypted authentication and access security
RuggedRated™ for Reliability in Harsh Environments
• Immunity to EMI and high voltage electrical transients:
The RX1512 chassis provides two module slots. Each slot accommodates a particular type of
RuggedCom module. Figure 2.1, “RX1512 Chassis Slot Assignment” shows the module slots on
the RX1512.
Figure 2.1. RX1512 Chassis Slot Assignment
The RX1512 chassis supports the following modules:
LM1 and LM2
The RX1512 chassis supports up to two line module (LM) cards. For more information on line
modules, see Section 2.2, “Line Modules (LM)”.
The RX1512 features a single 12-60VDC power supply integrated with the Control Module. For
instructions on completing the power supply connections, see Section 2.3, “Power Supply”.
All modules are built to the RuggedRated™ specifications of the RuggedBackbone™ RX1512.
Each module type is described in the following sections.
To install a module into the RuggedBackbone™ chassis, align the module guide ribs
with the channels on the chassis. Push the module in as far as it will go, being sure to
push through the resistance provided by the grounding springs. When properly seated,
the module flange will rest on the main chassis frame. Tighten the thumbscrews using
finger strength only.
The RX1512 Front Panel is equipped with an RS232 serial console port for initial management
functions, and a locally connected 10/100Base-T Ethernet port for system management out of
band from the switch fabric.
Figure 2.2. Front View - RX1512
Other Front Panel features include:
• Utility USB port.
• Power module indicator LEDs.
• Line module indicator LEDs.
• Alarm Indicator LED, which indicates system alarm status.
• Lamp Test / Alarm Cutoff (LT/ACO) button.
• Removable 1GB Compact Flash (CF) card, which contains active and fallback installations of
the ROX™ operating system, along with the configuration database and other system data.
• Chassis ground connection.
For more information on connecting to the ports on the front panel, see the following topics:
• Serial Console: Section 3.4, “Serial Console Port”
The front panel module status LEDs provide the following information:
LEDPurposeDescription
PMIndicates power supply status.
LM 1 through 2Indicates the line module status.
Table 2.1. Module Status LED Indications
2.2. Line Modules (LM)
The RuggedBackbone™ RX1512 supports two line modules in slots LM1 and LM2. Several types
of line modules may be ordered, depending on the type, speed, and number of Ethernet ports
required.
The following illustrations show the typical port configurations and connectors available for
RX1512 line modules. For complete information on the available line modules, refer to the
RuggedBackbone™ RX1512 data sheet.
I = Power supply is receiving input voltage.
O = Power supply is providing
output voltage to the RX1512.
The RX1512 power supply is integrated with the Control Module. The power supply and fail-safe
relay connections are made on a pluggable terminal block located on the front panel of the Control
Module. The RX1512 power supply input is 12VDC to 60VDC, and delivers a maximum of 42W.
Figure 2.25. RX1512 Pluggable terminal block power module and fail-safe relay connections
The RuggedBackbone™ RX1512 features optional mounting brackets for panel and DIN rail
mounting. The optional brackets attach to both sides of the appliance at the rear of the chassis.
For panel mounting, the mounting bracket provides four mounting holes. For DIN rail mounting,
the DIN adaptor mounts to a standard 1" DIN rail and is secured with a lock screw on each adaptor.
To attach the mounting brackets, align the brackets with the threaded holes on the sides of the
appliance. Secure the mounting brackets to the appliance with the screws included in the mounting
bracket kit.
The RX1512 features a Phoenix Plug Terminal Block. Both DC power supply and fail-safe relay
connections are made on the same terminal block.
For DC power supply wiring examples, refer to Section 3.2.3, “DC Power Supply Wiring Example ”.
For fail-safe relay wiring, refer to DC power supply wiring examples, refer to Section 3.3, “Critical
Alarm Wiring”.
The RX1512 has one (1) power supply installed. Service personnel must isolate all
power supplies prior to servicing.
3.2.1. RX1512 DC Power Connectors
Figure 3.7. RX1512 DC Power Connectors
3.2.2. Chassis Ground Connection
The RX1512 chassis ground connection, shown in Figure 3.8, “Chassis Ground Connection”, uses
a #10-32 screw. It is recommended to terminate the ground connection in a #10 ring lug. Torque
on the chassis ground connection should not exceed 30 in-lbs (3.4 Nm).
• It is recommended to provide a separate circuit breaker for the power supply.
• Equipment must be installed according to applicable local wiring codes.
3.3. Critical Alarm Wiring
The Critical Alarm output relay signals critical error conditions that may occur on the
RuggedBackbone™ RX1512. The contacts are energized upon power-up of the unit and remain
energized unless a critical alarm condition is detected. Relay connections are shown in the Critical
Alarm Relay Connector diagram. You can configure control of the relay output through the ROX™
user interface.
A common application for this output is to signal an alarm in case of a power failure.
The serial console port on the front panel provides access to the boot-time control and
configuration menu interface, and a console interface to the ROX™ operating system.
The serial ports implement RS232 DCE on a RJ45 connector. Serial settings are: 57600 bps, 8
bits, No parity, 1 stop bit. See the illustration and table below for pin configuration and assignment.
Figure 3.11. RJ45 Serial Console Port
RJ45 PinSignal Function
1RX+
2RX3TX+
4NC
5NC
6TX7NC
8NC
Table 3.1. RJ45 Serial Console Pinout
3.5. WAN Ports: RJ45
The RX1512 supports T1/E1 WAN ports, to interface to standard T1 or E1 telecommunication
infrastructure. Carefully note the orientation of the RJ45 receptacle when inserting or removing
cabling. See the illustration and table below for pin configuration and assignment.
The RX1512 supports optional E1 WAN ports with BNC connectors. The Tx and Rx connections
are labelled on the line module. See the illustration below for the connection configuration.
Figure 3.13. RJ45 T1/E1 Pin Configuration
3.7. Copper Ethernet Ports
The RuggedBackbone™ RX1512 can be ordered with up to 10/100Base-TX ports that allow
connection to standard CAT-5 UTP cable with RJ45 male connectors. All copper Ethernet ports
feature auto-negotiation, auto-polarity, and auto-crossover functions. The female RJ45 connector
can accept and take advantage of screened (commonly known as “shielded”) cabling.
3.7.1. RJ45 Twisted-Pair Copper Ports
Female RJ45 connectors are available on LMs that support 10/100Base-T and on LMs and SMs
that support 10/100/1000Base-T Ethernet. See the illustration and table below for pin configuration
and assignment.
The IEEE 802.3ab Gigabit Ethernet standard defines 1000 Mbit/s Ethernet communications
over distances of up to 100 meters using 4 pairs of CAT-5 (or higher) balanced, unshielded
twisted-pair cabling. For wiring guidelines, system designers and integrators should refer to
the Telecommunications Industry Association (TIA) TIA/EIA-568-A wiring standard for minimum
cabling performance specifications required for proper Gigabit Ethernet operation. To ensure
reliable, error-free data communications, new and pre-existing communication paths should
be verified for TIA/EIA-568-A compliance. The table: Cabling Categories and 1000Base-
TX Compliance summarizes the relevant cabling standards as they apply to 100Base-TX
5eYesNo action required. New installations should be designed with Category 5e or higher.
6YesNo action required.
> 6YesConnector and wiring standards to be determined.
Table 3.4. Cabling Categories and 1000Base-TX Compliance
1000Base-
TX Compliant
Follow these recommendations for copper data cabling in high electrical noise environments:
• Data cable lengths should be as short as possible, ideally limited to 10' (3m) in length. Copper
data cables should not be used for inter-building communications.
• Power and data cables should not be run in parallel for long distances, and should be installed
in separate conduits. Power and data cables should intersect at 90° angles when necessary
to reduce inductive coupling.
• Optionally, shielded/screened cabling can be used. The cable shield should be grounded at one
single point to avoid the generation of ground loops.
3.7.3. Transient Suppression
All copper Ethernet ports on RuggedCom products include transient suppression circuitry to
protect against damage from electrical transients and to ensure conformance to IEC 61850-3
and IEEE 1613 Class 1. This means that during a transient electrical event, it is possible for
communications errors or interruptions to occur, but recovery is automatic.
Required Action
RuggedCom does not recommend the use of copper cabling of any length for critical,
real-time, substation automation applications.
RuggedCom also recommends against the use of copper Ethernet connections to interface to
devices in the field across distances which could produce high levels of ground potential rise (that
is, greater than 2500V), during line-to-ground fault conditions.
The RX1512 supports serial port line modules with RJ45 connections. On power-up, all serial
ports default to RS485 mode. Each port can be individually set to RS232, RS485, or RS422 mode
via software.
Table 3.5. RJ45 RS232/RS485/RS422 Serial Pin
Assignment
Pin 2 is reserved for future IRIG-B output. Do not connect Pin 2 at this time; doing
so may cause hardware damage. Pins 7 and 8 are connected internally. No internal
termination is provided. In RS232 mode, these pins enter a high impedance state.
A DTE that asserts RTS will see CTS asserted, but hardware flow control is not
performed on the port.
3.9. DDS Ports: RJ45
The RX1512 supports DDS port line modules with RJ45 connections. The 56 kbps DDS port is
compatible with Bellcore standards. Each DDS module features a single 56/64 kbps DDS line
interface with a standard RJ45 receptacle.
Figure 3.16. RJ45 DDS Pin Configuration
RJ45 PinDescription
1R1: Transmit data to network (Ring 1)
2T1: Transmit data to network (Tip 1)
3NC
4NC
5NC
6NC
7T: Receive data from network (Tip)
8R: Receive data from network (Ring)
The DDS module features Rx and Tx LED indicators that display transmit and receive status.
Figure 3.17. DDS Module Rx and Tx LED Indicators
The following tables describe the DDS module Rx and Tx LED status indications:
Rx LED ColorStatus
GREENFrame sync detected and signal OK.
YELLOWSignal OK, but no frame sync.
REDLoss of signal.
OFFThe interface is not enabled.
Table 3.7. DDS Rx LED Indications
Tx LED ColorStatus
GREENThe interface is enabled and remote device has no errors.
YELLOWThe interface is in loopback mode.
RED
OFFThe interface is not enabled.
Table 3.8. DDS Tx LED Indications
Loss of signal or receiving any of OOS, UNM, or UMC codes: the remote device is out of service
or has problems with the signal.
3.11. SFP Optics – Installation, removal, and precautions
The RX1512 can be ordered with SFP (Small Form-factor Pluggable) pluggable optics modules.
SFP modules can be safely inserted and removed while the chassis is powered and operating.
When inserting or removing optics, observe the following precautions:
• Ensure that dust caps are mounted on SFP cages at all times, unless you are in the process
of inserting or removing an SFP module. The dust caps prevent the accumulation of residue or
particles that might inhibit proper operation.
• Ensure that you have properly discharged any possible electrostatic build-up to prevent
electrostatic discharges (ESD). This can be accomplished by proper grounding through an ESD
wrist strap, or by touching earth or chassis ground before installing or removing optical modules.
ESD can damage or shorten the life of optical modules when they are not plugged into a chassis.
• Ensure that SFP optical modules are always stored in an ESD-safe bag or other suitable
ESD-safe environment. Keep SFP modules free from moisture and store them at the proper
temperature (-40°C to +85°C).
• Disconnect all cables from the SFP module before inserting or removing the module.
• Use only components certified by RuggedCom Inc. with RuggedCom products. Damage can
occur to optics and product if compatibility and reliability have not been properly assessed.
Special attention must be paid to the orientation of SFP modules upon installation in the RX1512
chassis. The figure below shows the proper orientation of SFP modules installed in both upper and
lower line modules. SFP modules on the upper row must be inserted top-side up. SFP modules
on the lower row must be inserted top-side down. SFP modules should be inserted with the baillatch in the locked position.
Figure 3.18. SFP module orientation
Figure 3.19. SFP module insertion
SFP modules should slide gently into their ports and should lock in place when fully inserted.
Dust covers should be in place when installing the modules, and should always be in place when
cables are not connected.
3.11.2. SFP Module Removal
To remove the SFP module, disconnect any cables and replace the dust cover to protect the
optics. Extend the bail latch found on the top of the module. Grasp the bail latch and gently pull
outwards to unlock and remove the module.
Immediately after removal, store the SFP module in an ESD-safe environment.
Depending on the order code of the product, the RuggedBackbone™ RX1512 can be equipped
with several different types of fiber optic ports. The Transmit (TX) and Receive (RX) connections
of each port must be properly connected and matched for proper link establishment and operation.
The drawings in the following figures show a side and top view of each supported fiber optic
connector type to assist in identifying the proper cable connection orientation.
The RX1512 can be equipped with cellular modem modules for operation on GSM, EDGE, HSPA
+, or CDMA networks. The cellular modems feature 50 Ω SMA antenna connectors on the front
plate of each module. The following cellular modem modules are available:
Module Order CodeDescription
W111 Port Cell Modem GSM,EDGE,HSPA+
W122 Port Cell Modem GSM,EDGE,HSPA+
W211 Port Cell Modem EVDO Rev.A Verizon Wireless
W222 Port Cell Modem EVDO Rev.A Verizon Wireless
W321 Port Cell Modem GSM,EDGE,HSPA+, 1 Port Cell Modem EVDO Rev.A Verizon Wireless
Table 3.10. Cellular Modem Modules
Figure 3.25. Single Port Cellular Modem: Antenna Connections
Figure 3.26. Dual Port Cellular Modem: Antenna Connections
If two or more antennas are to be installed, the antennas must be separated by a
minimum distance of 20 cm (7.9").
The HSPA option is available for use on various GSM based networks. This option supports GSM,
GPRS, EDGE, UMTS and WCDMA/HSDPA/HSUPA. The Main antenna and Receive Diversity
antenna connections are made to the 50 Ω SMA connectors located on either side of the front
faceplate.
Supported frequency bands are given in the following table. For safe operation of the device,
ensure that the maximum antenna gain is not exceeded.
3.Note the location of the SIM card cages. For modules W11 and W32, install the SIM card in
SIM 1. For module W22, install a SIM card in both SIM 1 and SIM 2.
4.Top open a SIM card cage, slide the silver catch down towards the antenna connector end
of the module and flip the cage open.
5.Hold the SIM card at its notched end, with its connectors facing down, and insert the SIM
card into the cage.
6.Flip the cage down and slide the silver catch up away from the antenna connector end of
the module.
7.Replace the back of the module and secure the back of the module with the four screws
removed earlier.
The APE (Application Processing Engine) is an x86-based computer designed to occupy a single
line module slot on the RX1512. The APE can host any x86-based operating system capable of
running on a computer with similar specifications, and features a Gigabit Ethernet connection on
the module faceplate. You can use the APE for a variety of functions, such as network monitoring,
specialized applications, DNS applications, and more.
FeatureDescription
ProcessorIntel Atom E660T 1.3 GHz
RAM2 GB DDR2
Disk8 GB SATA, solid state
Network
USB
VideoDVI-D
LED Indicators
ControlsMomentary contact reset button
Operating System
2 × USB 2.0. Maximum USB device power consumption, through single port or combined through both ports:
250 mA at 5 V.
• Power
• Disk Activity
Supports any x86-compatible operating compatible with hardware specifications. For a list of tested and
confirmed operating systems, see Section 3.14.2, “Supported Operating Systems”.
Figure 3.29. APE Faceplate and Ports
3.14.2. Supported Operating Systems
The APE supports any x86-compatible operating system. The following operating systems have
been tested and confirmed to work with the APE module:
In addition to the gigabit Ethernet interface on the faceplate, the APE features a gigabit Ethernet
interface connecting to a port on the RX1512 chassis. The interface can be used by the operating
system running on the APE as a normal network interface. The port can be configured from ROX™.
Typical port parameters, such as speed, duplex, vlans, and more, can be configured. From the
perspective of the RX1512, the port is just switch port where a device is connected.
Figure 3.30, “APE Chassis Network Connection” shows how the APE and the RX1512 are
connected. The APE module can have connectivity to devices or networks connected to regular
ports on the RX1500.
Figure 3.30. APE Chassis Network Connection
3.14.3.1. Placing the APE in a VLAN
The port connecting the APE to the RX1512 is a normal switch port. The port PVID can be changed
through ROX™ as can be done with any other switch port. For example, if the APE is Line Module
2 (LM2), then setting the lm2/1 pvid parameter to 10 places the APE secondary network interface
connection on VLAN 10.
We recommend that the operating system be installed and configured by users with
experience in installing and administering the chosen operating system.
To install an operating system on the APE, you need the following items:
• DVI-D monitor.
• Keyboard with USB connector.
• Bootable USB flash drive or USB external CD/DVD drive with your operating system installation
package.
When using an external drive that is powered through the USB port, ensure that the
total power consumption through both USB ports does not exceed 250 mA at 5V.
To connect additional USB devices, such as a mouse, you can attach a USB hub to
the APE. Again, ensure that the total power consumption through both USB ports does
not exceed 250 mA at 5V.
Procedure 3.1. To install an operating system:
1.Ensure that the APE module is inserted properly into the line module slot and that the RX1512
is powered up. The APE module power LED should be ON and orange.
2.Connect your monitor to the DVI-D connector, connect your keyboard to a USB port, and
connect your bootable USB device to a USB port.
If your operating system installation package requires a network connection, connect a
network cable to the Ethernet port. Connect the other end of the cable to a functioning network
port.
3.With a pin or small screwdriver, press and release the APE reset button.
4.After the APE boots, press the F2 key. The BIOS screen appears.
5.Navigate to the Boot menu. Move the USB device to the first boot priority.
Your bootable USB device must be connected to the APE for you to be able to
set the device’s boot priority.
6.Navigate to the Exit menu and select Exit Saving Changes. The APE restarts and boots
from the connected USB device.
7.Follow the prompts and instructions from your operating system installation package. Detailed
installation instructions are beyond the scope of this guide. For detailed instructions on
installing your operating system, refer to the operating system documentation.
8.After installing the operating system, you may need to change the boot priority back to the
APE’s internal drive. Reboot the APE and press F2 as the module reboots. Navigate to the
Boot menu and move the internal drive to the first boot priority. Navigate to the Exit menu
and select Exit Saving Changes. The APE restarts and boots from the internal drive.
It is also possible to run a live operating system from the USB device itself. However,
this may result in slower overall performance of the operating system.
The APE module features a BIOS with functionality similar to that of a typical PC. You can
configure the following BIOS settings:
• System Time
• Processor Options
• Boot Options
• Security Options
For most purposes, these options are used sparingly unless there is a specific hardware or
software requirement that requires a change. The most commonly changed options are the boot
options, as the USB ports need to be made bootable to install an operating system.
To display the BIOS menus, press F2 while powering on the APE. To display BIOS help, press
F1 and follow the instructions at the bottom of the screen.
3.14.6. Resetting the Module
Whenever possible, shut down and reboot the APE from the operating system instead of
performing a hard reset with the reset button. This helps to ensure graceful shutdowns and data
integrity. If absolutely required, you can perform a hard reset with the reset button on the APE
faceplate.
The reset button is recessed from the front surface of the faceplate. Use a pin or small screwdriver
to reach the button.
To reset the APE, depress and hold the reset button until the power LED turns orange. Then,
release and push the reset button again. The power LED turns green as the module reboots.
3.14.7. LED Indicators
LED IndicatorLED Color and StateDescription
Power LEDGreen, steadyAPE module is on and functioning correctly.
Power LEDOrange, steady
Disk LEDGreen, steady or blinking.
Ethernet Port LEDGreen, steady or blinking.Indicates incoming and outgoing network activity.
Q:How do I use a CD or DVD to install an operating system on the APE module?
A:Connect an external CD/DVD drive to one of the APE USB ports. If the external drive is
powered through the USB port, ensure that it does not exceed the USB port power limitations
(250 mA at 5 V), or use a drive that has an external power supply.
Q:How do I install Windows from a USB flash drive?
A:There are many articles on the Internet explaining how to do this. We recommended
selecting a method that uses the least amount of third-party software to create the bootable
USB drive.
Q:Can I shutdown or power-up the APE module from ROX™?
A:Not currently. In ROX™ version 2.2, the APE is isolated from ROX™ control. ROX™
can identify the type of module present in the RX1512 line module slot, and can monitor
temperature information for the APE module.
Q:Can I connect to the operating system running on the APE from one of the ports on the
other slots?
A:Yes. In ROX™, assign lm{APE_slot}/1, where {APE_slot} is the line module slot where
the APE is installed, to the VLAN on which connectivity is expected. The APE should be
reachable from any device belonging to the same VLAN.
If you want the APE be routable, log in to the operating system on the APE and set the
secondary interface gateway to the IP address of the ROX™ VLAN.
Q:Can I use the APE module as a DHCP server or a DNS server?
A:Yes. The APE module supports any x86-compatible operating system and the services
The RX1512 can be ordered with several different modules which contain 10/100Tx or
10/100/1000Tx Ethernet ports. All copper Ethernet ports have the following specifications:
The following sections detail fiber optic specifications for ports that can be ordered with the
modules on a RuggedBackbone™ RX1512. The user determines the type of optics at time of
ordering, and can determine the modules installed on a particular unit by reading the factory data
file via the ROX™ user interface. Section 4.4.1, “Fast Ethernet (100Mbps) Optical Specifications”
and Section 4.4.2, “Gigabit Ethernet (1Gbps) Optical Specifications” list the specifications of
the optical transceivers used in the fiber Ethernet modules available for the RX1512. The
specifications are organized by order code. Module order codes are contained within each unit
when it is assembled and configured at the factory. Consult the RuggedCom ROX™ User Guide
for help in obtaining the factory configuration data.
4.4.1. Fast Ethernet (100Mbps) Optical Specifications
1.Maximum segment length is greatly dependent on factors such as fiber quality, and
the number of patches and splices. Please consult RuggedCom sales associates when
determining maximum segment distances.
2.All optical power numbers are listed as dBm averages.
3.F51 transceivers are rated for -40°C to +85°C.
4.5. Operating Environment
ParameterRangeComments
Ambient Operating Temperature-40°C to 85°C
Table 4.8. Operating Environment
4.6. Mechanical Specifications
ParameterValueComments
Dimensions
WeightApproximately 5 lbs (2.3 kg)Weight dependent on module selection.
RuggedCom warrants this product for a period of five (5) years from the date of purchase. This
product contains no user-serviceable parts. Attempted service by unauthorized personnel shall
render all warranties null and void. For warranty details, visit www.RuggedCom.com or contact
your customer service representative.
Should this product require service, contact the factory at: