Omnitron Systems Technology 2-Port GM4 Fiber to Copper Plug-in Quick Start

  • Hello! I am an AI chatbot trained to assist you with the Omnitron Systems Technology 2-Port GM4 Fiber to Copper Plug-in Quick Start. I’ve already reviewed the document and can help you find the information you need or explain it in simple terms. Just ask your questions, and providing more details will help me assist you more effectively!
iConverter 2-Port GM4 Network Interface Device
Fiber to Copper or Copper to Copper Quick Start Guide
PRODUCT OVERVIEW
This document describes the basic installation and conguration
of the 2-Port GM4 plug-in modules.
The GM4 features a single xed ber and one UTP port or one SFP
port and one UTP port or two UTP and a RS-232 Serial Console
Port. The SFP ports support SERDES 100/1000BASE-X SFP
ber and Omnitron approved SGMII 10/100/1000BASE-T
copper transceivers.
For more information including the complete User Manual on
the 2-Port GM4 modules, access Omnitron’s registration page
and register the product:
http://www.omnitron-systems.com/forms/product_registration.php
INSTALLATION PROCEDURE
1) Congure DIP-Switches
2) Install Module in Chassis and Connect Cables
3) Congure Module via Command Line Interface
4) Verify Operation
1) CONFIGURE DIP-Switches
DIP-SWITCH BANK 1
The function of DIP-switch Bank 1 is outlined in Figure 1 and 2 below.
Switch Down (Default) Up SW6 SW7 SW8 Link Mode
1
AN:
P1 Auto-neg.
Man:
P1 Manual Neg.
Down Down Down Link Segment (LS)
2
AN:
P2 Auto-neg.
Man:
P2 Manual Neg.
Up Down Down Link Propagate (LP)
3
1000:
P2 1000Mbps
10-100:
P2 10 or 100Mbps
Down Up Down
Remote Fault Detect + Link
Segment (RFD+LS)
4
100:
P2 100Mbps
10:
P2 10Mbps
Up Up Down
Remote Fault Detect + Link
Propagate (RFD+LP)
5
FDX:
P2 Full-Duplex
HDX:
P2 Half-Duplex
Down Down Right Symmetrical Fault Detect (SFD)
6
Link Modes (see Figure 2)
Up Down Up
Asymmetrical Link Propagate Port
1 to Port 2 (ALP P1 P2)
7 Down Up Up
Asymmetrical Link Propagate Port
2 to Port 1 (ALP P2 P1)
8 Up Up Up
Asymmetrical Link Propagate Port
1 to Port 2 + Port 1 Remote Fault
Detect (ALP P1 P2 + P1 RFD)
Figure 1: DIP-switch Bank 1 Figure 2: Link Mode Settings
d. When using a GM4 model with UTP ports or copper transceivers, connect the UTP port
via a Category 5 or better cable to a 10BASE-T, 100BASE-TX or 1000BASE-T Ethernet
device (depending on the conguration of the port).
3) CONFIGURE MODULE VIA COMMAND LINE INTERFACE
To access the Command Line Interface, connect the GM4 RS-232 Serial Console Port to the
COM port of a computer equipped with terminal emulation software such as HyperTerminal.
The Console Port (DCE) is a mini DIN-6 female connector which can be changed to a
DB-9 connector with the included adapter. The GM4 Console Port is a standard RS-232
asynchronous serial interface.
Start HyperTerminal and select the correct COM Port in the HyperTerminal “Connect To:”
window. Set the serial port to the following:
Bits Per Second 57,600 Stop Bits 1
Data Bits 8 Parity NONE
Hardware Flow Control NONE
The Command Line Interface enables detailed conguration of the module.
4) VERIFY OPERATION
Once the module has been installed and congured per steps 1 - 3, verify the module is
operational by viewing the LED indicators.
LED Function
“Legend”
Color OFF State ON/Blinking State
Power
“PWR”
Green No power ON: Module has power
P1 Link Activity
“100”
Green Port not linked at 100M
ON: Port linked at 100M
Blinking: Data activity
P1 Link Activity
“1000”
Green Port not linked at 1000M
ON: Port linked at 1000M
Blinking: Data activity
P1 Link Activity
“100” and “1000”
Green Port not linked at 10M
ON: Port linked at 10M
Blinking: Data activity
Test/Alarm
“Tst/Alm”
Green Reserved Reserved
Management Mode
“Msr/Slv”
Green N/A
ON: Master (normal)
5 Hz Blinking: Secure Slave
P2 Link Activity
“100”
Green Port not linked at 100M
ON: Port linked at 100M
Blinking: Data activity
P2 Link Activity
“1000”
Green Port not linked at 1000M
ON: Port linked at 1000M
Blinking: Data activity
P2 Link Activity
“100” and “1000”
Green Port not linked at 10M
ON: Port linked at 10M
Blinking: Data activity
Figure 5: LED Indicators
040-8920R-002A 5/12
Page 1
Omnitron Systems Technology * 140 Technology Dr., * Irvine, CA 92618
949.250.6510 tel * 949.250.6514 fax * www.omnitron-systems.com
SW1: P1 AUTO/MANUAL NEGOTIATION “AN / Man”
When this DIP-switch is in the “AN” position (factory default), the port automatically determines
the duplex and pause modes of the connected device. If the connected device cannot provide
the proper signal to indicate its own mode of operation, the DIP-switch should be set to the
“Man” position. When in manual mode, no capabilities are advertised and the port operates
in full-duplex mode.
SW2, SW3, SW4, SW5: Port 2 (UTP) Conguration
The gure below summarizes the function of the DIP-switches SW2 - SW5.
SW2
AN/MAN
SW3
1000/100-10
SW4
100/10
SW5
FDX/HDX
UTP Mode of Operation
AN 1000 10 or 100 FDX
The UTP port is set to auto-negotiation with the following modes
advertised: 1000F, 1000H, 100F, 100H, 10F, 10H
AN 1000 10 or 100 HDX
The UTP port is set to auto-negotiation with the following modes
advertised: 1000H, 100F, 100H, 10F, 10H
AN 10-100 100 FDX
The UTP port is set to auto-negotiation with the following modes
advertised: 100F, 100H, 10F, 10H
AN 10-100 100 HDX
The UTP port is set to auto-negotiation with the following modes
advertised: 100H, 10F, 10H
AN 10-100 10 FDX
The UTP port is set to auto-negotiation with the following modes
advertised: 10F, 10H
AN 10-100 10 HDX
The UTP port is set to auto-negotiation with the following modes
advertised: 10F, 10H
Man 1000 10 or 100 FDX
The UTP port is set to auto-negotiation with the following modes
advertised: 1000F (When set to 1000, the port is always in AN mode)
Man 1000 10 or 100 HDX
The UTP port is set to auto-negotiation with the following modes
advertised: 1000H (When set to 1000, the port is always in AN mode)
Man 10-100 100 FDX The UTP port is set to manual negotiation and is forced to: 100F
Man 10-100 100 HDX The UTP port is set to manual negotiation and is forced to: 100H
Man 10-100 10 FDX The UTP port is set to manual negotiation and is forced to: 10F
Man 10-100 10 HDX The UTP port is set to manual negotiation and is forced to: 10H
Figure 3: UTP Conguration
SW6, SW7, SW8: LINK MODES
The DIP-switches shown in Figure 2, on the previous page, are used to congure the link
modes. It is recommended to keep link mode DIP-switches in the default Down position
during the initial installation. After the circuit has been tested and operational, congure the
module for the desire mode.
DIP-SWITCH BANK 2
The function of DIP-switch Bank 2 is outlined in Figure 4 below.
Switch Position Legend Down (Default) Up
1 A-DS Disable Enable
2 B-DS Disable Enable
3 M/SL Master (Auto Select) Slave
4 ZTP Disable Enable
Figure 4: DIP-switch Bank 2
Page 2 Page 3
SW1 and SW2: Backplane Enable
When these DIP-switches are in the “Disable” position, the Backplane Port of the module is
isolated from the Ethernet Backplane on the chassis. When these DIP-switches are in the
“Enable” position, the Backplane Port is enabled. This allows Ethernet Backplane connectivity
to an adjacent module via the chassis A/B Backplane Link depending on the switch setting.
Enabling backplane A or B will depend where the module is installed in the chassis. When
connecting an odd slot number to an even slot number (referenced from left to right), use
backplane A. When connecting an even slot number to a odd slot number (referenced from
left to right), use backplane B.
SW3: Master/Slave
Setting this DIP-switch to the “Master” position (factory default), allows chassis mastership
to be automatically negotiated by the installed management modules.
When an NMM2 is installed in the chassis, the NMM2 will always be the master, otherwise
the lowest slot number with a management module installed will become the chassis master.
To designate the GM4 module as the master of the chassis when a Network Management
Module (NMM2) is not installed, set the DIP-switch on the module to the Down “M/SL” position,
and set the DIP-switch on the other installed management modules to the Up “SL” position
to enable Slave-Only mode.
SW4: Zero Touch Global
Zero Touch Provisioning (ZTP) allows the module to be automatically congured via standard
protocols: BOOTP, DHCP, and TFTP. Zero Touch is disabled by default. Setting this DIP-
switch to the “Disable” position (factory default) globally disables DHCP and TFTP protocols.
When this DIP-switch is in the “Enable” position, the network parameters of the module are
requested from a DHCP server. This includes the IP conguration parameters and the IP
address of the TFTP server. Once the parameters are received, the module requests the
conguration le from the TFTP server.
2) INSTALL MODULE IN CHASSIS AND CONNECT CABLES
Caution: Use proper ESD protection to reduce the risk of damage to your equipment.
a. Carefully slide the module into an open slot in the chassis. Align the module with the
installation guides and ensure that the module is rmly seated against the backplane.
Secure the module by fastening the front panel thumbscrew (push in and turn clockwise
to tighten) to the chassis front. Verify the “Pwr” LED is ON (indicating the chassis is
powered).
b. When using a GM4 model with SFP ports, insert the SFP ber or copper transceivers
into the SFP receptacles on the module.
NOTE: The release latch of the SFP transceiver must be in the closed (up) position
before insertion.
The GM4 module has the ability to detect the speed and automatically congure the
port to match the speed of approved SFP transceivers. Some SFP ber transceivers
will need to be congured using the portattribute CLI commands to congure the speed
of the port to match the speed of the installed SFP transceiver.
c. Connect the appropriate multimode or single-mode ber cable to the ber port of the
installed module. It is important to ensure that the transmit (TX) is attached to the receive
side of the device at the other end and the receive (RX) is attached to the transmit side.
Single-ber (SF) transceivers operate in pairs. The TX wavelength must match the RX
wavelength at the other end and the RX wavelength must match the TX wavelength at
the other end.
/