An Alcatel service agreement brings your company the assurance of 7x24 no-excuses technical
support. You’ll also receive regular software updates to maintain and maximize your Alcatel product’s
features and functionality and on-site hardware replacement through our global network of highly
qualified service delivery partners. Additionally, with 24-hour-a-day access to Alcatel’s Service and
Support web page, you’ll be able to view and update any case (open or closed) that you have reported
to Alcatel’s technical support, open a new case or access helpful release notes, technical bulletins, and
manuals. For more information on Alcatel’s Service Programs, see our web page at
www.ind.alcatel.com, call us at 1-800-995-2696, or email us at support@ind.alcatel.com.
This Manual documents Release 4.5 Omni Switch/Router hardware and software.
The functionality described in this Manual is subject to change without notice.
Alcatel® and the Alcatel logo are registered trademarks of Alcatel. Xylan®, OmniSwitch®, PizzaSwitch® and
OmniStack® are registered trademarks of Alcatel Internetworking, Inc.
AutoTracker™, OmniAccess™, OmniCore™, Omni Switch/Router™, OmniVista™, PizzaPort™, PolicyView™,
RouterView™, SwitchManager™, SwitchStart™, VoiceView™, WANView™, WebView™, X-Cell™, X-Vision™
and the Xylan logo are trademarks of Alcatel Internetworking, Inc.
SM
All-In-One
of their respective companies.
is a service mark of Alcatel Internetworking, Inc. All other brand and product names are trademarks
26801 West Agoura Road
Calabasas, CA 91301
(818) 880-3500 FAX (818) 880-3505
info@ind.alcatel.com
US Customer Support–(800) 995-2696
International Customer Support–(818) 878-4507
Internet–http://eservice.ind.alcatel.com
Cautions
FCC Compliance: This equipment has been tested and found to comply with the limits for 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 instructions in this guide, may cause interference to radio
communications. Operation of this equipment in a residential area is likely to cause interference, in
which case the user will be required to correct the interference at his own expense.
The user is cautioned that changes and modifications made to the equipment without approval of the
manufacturer could void the user’s authority to operate this equipment. It is suggested that the user
use only shielded and grounded cables to ensure compliance with FCC Rules.
This equipment does not exceed Class A limits per radio noise emissions for digital apparatus, set out
in the Radio Interference Regulation of the Canadian Department of Communications.
Avis de conformité aux normes du ministére des Communications du Canada
Cet équipement ne dépasse pas les limites de Classe A d’émission de bruits radioélectriques pour les
appareils numériques, telles que prescrites par le Réglement sur le brouillage radioélectrique établi
par le ministére des Communications du Canada.
Lithium Batteries Caution: There is a danger of explosion if the Lithium battery in your chassis is
incorrectly replaced. Replace the battery only with the same or equivalent type of battery
recommended by the manufacturer. Dispose of used batteries according to the manufacturer’s
instructions. The manufacturer’s instructions are as follows:
Return the module with the Lithium battery to Alcatel. The Lithium battery will
be replaced at Alcatel’s factory.
Alcatel's Omni Switch/Router (OmniS/R) is an advanced, multi-layer switching platform (Layer
2 and 3) that supports the most demanding switch requirements. With Omni Switch/Router,
network administrators can replace aging
Gigabit Ethernet backbones.
Important Notes ♦
Beginning with Release 4.4,
supported. Beginning with Release 4.5, ATM, Token
Ring, M013, and Mammoth-based Ethernet Modules are
no longer supported.
or Fast Ethernet backbones with high capacity
FDDI
is no longer
FDDI
♦
Omni Switch/Router modules can be distinguished
from older OmniSwitch modules by the X in the
module name. For example, the
OmniSwitch module whereas the
Omni Switch/Router module.
Omni Switch/Router has a distributed switching fabric. In a 9-slot chassis operating at full
duplex, Omni Switch/Router offers an aggregate 22 Gigabit per second (Gbps) distributed
switching fabric. In addition, Omni Switch/Router offers new high density switching modules,
including auto-sensing 10/100 Ethernet modules that offer high speed network connections to
servers and desktops. (See
for examples.)
Omni Switch/Router
The
MPX
VLAN MAC
MPX
.
learning,
is required per Omni Switch/Router, but you can add another
Omni Switch/Router switching modules require an
MPX. You cannot install any version of the MPM (i.e.,
MPM-C, MPM 1G, MPM II, or original MPM) in a chassis
with an MPX.
routing,
Switch/Router. In addition, the
Only one
redundancy. See Chapter 2, “The Omni Switch/Router
the
Omni Switch/Router Applications and Configurations
Management Processor Module (
SNMP
, and file management functions for the entire Omni
MPX
has an Ethernet plug-in port for managing the switch.
♦
Important Note
ESM-100C-32W
ESX-100C-32W
MPX
) module provides the core
MPX
,” for more information on
♦
is an
is an
on page 1-5
MPX
for
An Omni Switch/Router Hardware Routing Engine (
Layer 3 switching from 1.5 to 12.0 million packets per second (Mpps) in a fully loaded
chassis. See The Omni Switch/Router Hardware Routing Engine (HRE-X) on page 1-22 for
more information on the HRE-X.
Omni Switch/Router switching modules perform software filtering, translations between
dissimilar network interfaces, and hardware-based switching. Omni Switch/Router switching
modules have an additional on-board interface connector for the
HRE-X). The HRE-X offers high-speed
HRE-X.
Page 1-1
Currently, Omni Switch/Router switching modules consist of Gigabit Ethernet modules, autosensing Ethernet modules, Fast 10/100 Ethernet modules, 10 Mbps Ethernet modules, WAN
modules, and Voice Over IP (VOIP) modules. See Chapter 3, “Omni Switch/Router Switching
Modules,” for documentation.
♦ Important Note ♦
Omni Switch/Router modules require the use of an
Omni Switch/Router chassis (see Omni Switch/Router Chassis and Power Supplies on page 1-7). Do not
install an Omni Switch/Router module in an
OmniSwitch chassis and do not install an OmniSwitch
module in an Omni Switch/Router chassis.
Omni Switch/Router User Interface (UI) Software
Omni Switch/Router hardware uses the same User Interface (UI) commands and Network
Management Software (NMS) as OmniSwitch hardware. Omni Switch/Router modules support
broadcast management, multicast management, any-to-any switching, virtual LANs (VLANs),
firewalls, user authentication, WAN access, and policy-based configuration.
♦ Important Note ♦
In Release 4.4 and later, the Omni Switch/Router is
factory-configured to boot up in
Interface) mode, rather than in UI (User Interface)
mode. Chapter 4, “The User Interface,” includes documentation on changing from CLI mode to UI mode.
CLI (Command Line
Omni Switch/Router Network Management Software (NMS)
You need Release 3.4, or higher, of Alcatel’s X-Vision Network Management Software (NMS)
to operate with Omni Switch/Router hardware.
Page 1-2
Omni Switch/Router Distributed Switching Fabric
Omni Switch/Router Distributed Switching Fabric
Many switches in the market employ a shared memory architecture, which uses a central
switching engine to send data to the appropriate port. As shown in the figure below, data
enters the input port (➊ below), crosses the switching fabric on its way to the central switching engine(➋ below), and again crosses the switching fabric (➌ below) before exiting the
appropriate output port (❹ below).
Central Switching Engine
Note: Unlike distributed switch
fabric, data is forced to cross
switch fabric twice.
➋➌
I/O PortI/O Port
➊
Switch Fabric
❹
Traditional Shared Memory Architecture
In contrast, Omni Switch/Router switches use a distributed switching fabric. As shown in the
figure below, data enters the input port and crosses the switching fabric only once before
exiting the appropriate output port. Compared to the shared memory architecture, only half
as much bandwidth is required since data just crosses the switching fabric once.
Switch Fabric
I/O Port
I/O Port
Omni Switch/Router Distributed Switching Fabric
Page 1-3
Omni Switch/Router Distributed Switching Fabric
Omni Switch/Router Fabric Capacity
In a chassis with Omni Switch/Router modules only, each Omni Switch/Router module
provides 2.4 Gbps of switching capacity in full-duplex mode. In a chassis with all Omni
Switch/Router modules, the Omni Switch/Router architecture provides up to a 22 Gbps
distributed switching fabric. As shown in the figure below, an OmniS/R-9 with an MPX and
eight (8) Omni Switch/Router switching modules provides 22 Gbps of switching capacity. An
an OmniS/R-5 with an MPX and four (4) Omni Switch/Router switching modules provides 12
Gbps of switching capacity, while an OmniS/R-3 with an MPX and two (2) Omni
Switch/Router switching modules provides 7 Gbps of switching capacity.
OmniS/R-5
OmniS/R-3
OmniS/R-9
Fabric Capacity
(Gbps)
22
12
7
Page 1-4
1
MPX
3579
Omni Switch/Router Switching Modules
Omni Switch/Router Fabric Capacity in OmniS/R-3, OmniS/R-5 and OmniS/R-9 Chassis
Omni Switch/Router Applications and Configurations
Omni Switch/Router Applications and Configurations
Omni Switch/Router hardware is ideally suited to meet the most demanding server and backbone needs. In addition, Omni Switch/Router hardware can be integrated easily with
OmniSwitches and with OmniStack workgroup switches. The examples that follow show how
the Omni Switch/Router can be used as a network backbone and as the central switch/router
in a wiring closet.
Omni Switch/Router as the Backbone Connecting Several Networks
The figure below shows how Omni Switch/Router Gigabit Ethernet and 10/100 Ethernet
modules can be used as a network backbone. In this example, two networks on two different floors need high speed access to a server farm on the first floor.
Server
Fast Ethernet
(OmniChannel)
Gigabit Ethernet
Fast Ethernet
(OmniChannel)
OmniSwitch
OmniStack
Omni Switch/Router
10/100 Ethernet
10/100 Ethernet
Gigabit Ethernet
Server Farm
3rd Floor
2nd Floor
1st Floor
Using Omni Switch/Router in a Network Backbone
The servers each have dedicated Gigabit Ethernet connections to Omni Switch/Router
modules on the first floor. The Omni Switch/Router chassis on the first floor is connected to
the network on the second floor via a Gigabit Ethernet link to the OmniStack on the second
floor. The Omni Switch/Router chassis on the first floor is connected via a 10/100 Ethernet
link, using OmniChannel, to the OmniSwitch chassis on the third floor containing a Fast
Ethernet module, such as the
ESM-100C-12. See Chapter 15, “Managing Ethernet Modules,” for
more information on OmniChannel.
Page 1-5
Omni Switch/Router Applications and Configurations
Omni Switch/Router as the Central Backbone
Switch/Router and in the Wiring Closet
The figure below shows Omni Switch/Router chassis used in the wiring closet and as a
network backbone switch/router connecting the wiring closets and server farm. On the third
floor, an Omni Switch/Router chassis connects a mixture of 10BaseT and 100BaseTx workstations with an auto-sensing Ethernet module. In addition, this Omni Switch/Router chassis
connects the workstations to a local server with a Gigabit Ethernet module. On the second
floor, an Omni Switch/Router connects legacy Token Ring workstations. On the first floor, the
Omni Switch/Router connects the networks on the upper floors to the server farm using a
Gigabit Ethernet module.
Omni Switch/Router
Server
3rd Floor
10/100 Ethernet
Gigabit Ethernet
2nd Floor
Token Ring
Omni Switch/Router
Gigabit Ethernet
1st Floor
Omni Switch/Router
Server Farm
Using Omni Switch/Router in the Wiring Closet
Page 1-6
Omni Switch/Router Chassis and Power Supplies
Omni Switch/Router Chassis and Power Supplies
The Omni Switch/Router chassis houses the MPX, switching modules, and one or two power
supplies. The modular design of the chassis provides the ability to configure your Omni
Switch/Router to meet your networking needs. The Omni Switch/Router chassis also offer
such failure resistant features as redundant MPXs, redundant power supplies, and hot
swapping of switching modules. (See Chapter 3, “Omni Switch/Router Switching Modules,”
for more information on hot swapping switching modules.)
There are three (3) different versions of the Omni Switch/Router chassis. The OmniS/R-3, a
three-slot version, is documented in OmniS/R-3 on page 1-8. The OmniS/R-5, a five-slot
version, is documented in OmniS/R-5 on page 1-10. A nine-slot version called the OmniS/R-9
is documented in OmniS/R-9 and OmniS/R-9P on page 1-13. The OmniS/R-3, OmniS/R-5 and
OmniS/R-9 chassis, the
requirements.
MPX module, and several switching modules have met FCC Class B
♦ Note ♦
In the current release, a maximum of seven (7) 32-port
switching modules (e.g.,
9-slot Omni Switch/Router chassis.
ESX-100C-32W) is supported in
Slot 1 is reserved for the
a switching module in Slot 2 (if an MPX is installed in Slot 1) or an MPX. When dual-redundant MPXs are installed, one of them must be installed in Slot 1 and the other in Slot 2. On the
OmniS/R-3, Slot 3 is reserved for a switching module. On the OmniS/R-5, Slots 3 through 5
are reserved for switching modules. On the OmniS/R-9, Slots 3 through 9 are reserved for
switching modules.
MPX; you cannot install a switching module in Slot 1. You can install
♦ Important Note ♦
You must have an
module; you cannot use any version of the MPM.
If you have any empty switching module slots in either
an OmniS/R-3 (3-slot) or OmniS/R-5 (5-slot) chassis,
you must cover them with blank panels (available from
Alcatel) to prevent your chassis from overheating.
Covering empty slots forces air to flow directly over the
power supplies, thereby cooling them. If the power
supplies are not properly cooled, they will overheat
and shut down.
MPX acting as the management
Warning
Page 1-7
Omni Switch/Router Chassis and Power Supplies
OmniS/R-3
The OmniS/R-3 chassis features three slots for an MPX and specific switching modules
(contact your Alcatel sales representative for information on module availability). Slots are
numbered from 1 to 3 starting with the topmost slot. A built-in power supply is located on the
right side of the chassis, and a fan cooling system is located on the left side of the chassis.
The chassis can be rack-mounted. You can view all cabling, power supplies, module interfaces, and LEDs at the front of the chassis.
The OmniS/R-3 uses a built-in AC power supply that has a capacity of 32.8 Amps at 5 volts
and 3 amps at 12 volts for 200 Watts of output power. The OmniS/R-3 does not support a
Backup Power Supply (BPS).
Do not connect the power connector on the back of
the OmniS/R-3 to data communication equipment.
Management
Processor
Module (MPX)
♦ Caution ♦
Switching
Modules
MPX 10
GSX-K sm
ASX 622 sm
2
1
K
K
O
O
PS1
PS2
2
1
1
2
K
K
O
O
ALARM
2
1
K
K
O
O
YEL,FERF
ACT_B
ACT_A
MODEM
TEMP
PRI
SEC
TX
RX
RX
TX
LINK
1
CERR
RED_B
RED_A
CONSOLE
ATM622
TX
RX
A
ETHERNET
COL
LINK
ACT
TX
RX
2
TX
RX
B
OmniS/R-3 Chassis
♦ Important Note ♦
Slot 1 (the top slot) on the OmniS/R-3 is reserved for
an MPX module. Slot 2 can accommodate either a
second (optional) MPX module or a Switching module.
Slot 3 (the bottom slot) is reserved for a Switching
module. Contact your Alcatel sales representative for
information regarding module availability.
Weight18 lb. (8.18 kg), fully populated with modules and power
Switching BackplaneUp to 7 Gbps (aggregate) switching fabric capacity
Voltage Range85-270 VAC, 47 to 63 Hz, auto-ranging and auto-sensing
Current Draw3.8 Amps at 100/115 VAC
Watts (Output)200
Current Provided32.8 Amps at +5 Volts
Heat GenerationApproximately 1020 BTUs per hour
Temperature Operating Range0 to 45 degrees Celsius
Humidity5% to 90% Relative Humidity (Operating)
AltitudeSea level to 10,000 feet (3 km)
Agency ListingsUL 1950
13.00” (33.02 cm) deep
supplies.
1.7 Amps at 230 VAC
3 Amps at +12 Volts
32 to 113 degrees Fahrenheit
0% to 95% Relative Humidity (Storage)
CSA-C22.2
EN60950
FCC Part 15, Subpart B (Class A)
EN55022, 1987/EN50081
FCC Class B
C.I.S.P.R. 22: 1985
EN50082-1, 1992
IEC 801-2, 1991
IEC 801-3, 1984
IEC 801-4, 1988
VCCI V-3/94.04 (Class A & Class B)
EN 61000-4-2: 1995
EN 61000-4-3: 1995
EN 61000-4-4: 1995
EN 61000-4-5: 1995
EN 61000-4-6: 1996
EN 61000-4-8: 1993
EN 61000-4-11: 1994
ENV 50204: 1996
Page 1-9
Omni Switch/Router Chassis and Power Supplies
OmniS/R-5
The OmniS/R-5 chassis has five slots for an MPX and switching modules (see figure below).
Slots are numbered from 1 to 5 starting with the topmost slot. Slots for two power supplies
are located at the bottom of the chassis.
If you have an OmniS/R-5 with a single power supply,
do not remove the cover on the empty power supply
slot. In addition, if you have any empty switching
module slots in an OmniS/R-5, you must cover them
with blank panels (available from Alcatel) to prevent
your chassis from overheating.
Covering empty slots forces air to flow directly over the
power supplies, thereby cooling them. If the power
supplies are not properly cooled, they will overheat
and shut down.
The entire chassis can be wall-mounted or rack-mounted. You can view all cabling, power
supplies, module interfaces, and
LEDs at the front of the chassis.
♦ Warning ♦
Switching Modules
PS1 (Power Supply 1)
Omni Switch/Router
Management Processor
Module (MPX)
PS2 (Power Supply 2)
The OmniS/R-5
The OmniS/R-5 uses the
MPX. Slot 1 is reserved for the MPX; you cannot install a switching
module in Slot 1. You can install a switching module in Slot 2 (if an MPX is installed in Slot 1)
or an MPX. When dual-redundant MPXs are installed, one of them must be installed in Slot 1
and the other in Slot 2. Slots 3 through 5 are reserved for switching modules.
Page 1-10
Omni Switch/Router Chassis and Power Supplies
The OmniS/R-5 provides bays for two power supplies. The power supplies are self-enclosed
to allow safe hot-insertion and hot-removal. When two power supplies are installed, they
share the electrical load. If one should fail, the remaining power supply automatically takes
up the load without any disruption to the operation. See Chapter 1, “Omni Switch/Router
Chassis and Power Supplies,” for more information on installing and removing power
supplies. See OmniS/R-5 Technical Specifications on page 1-12 for more information.
The OmniS/R-5 uses one of the following power supplies:
OmniS/R-PS5-375The standard power supply. It can provide 375 Watts of power.
OmniS/R-PS5-DC375 A -48 volt (input voltage) DC version of the OmniS/R-PS5-375 power
supply. This power supply can provide 375 Watts of power. It requires
the use of 12 to 14 gauge wire for connections to the DC power source.
See Connecting a DC Power Source to an OmniS/R-PS5-DC375 on page
1-24 for more information.
♦ Caution ♦
This unit may be equipped with two power connections. To reduce the risk of electrical shock, disconnect
both power connections before servicing the unit.
♦ VORSICHT ♦
Das Gerat kann mit zwei Netzanschlussen ausgestattet
sein. Um einen elektrischen Schlag zu vermeiden,
immer beide Anschlusse vor der Wartung vom Netz
trennen.
Weightapproximately 55 lb. (24.09 kg), fully populated with mod-
ules and power supplies.
Switching BackplaneUp to 12 Gbps (aggregate) switching fabric capacity
Voltage Range90-265 VAC, 47 to 63 Hz auto-ranging and auto-sensing.
Current Draw6 Amps at 100/115 VAC; 3 Amps at 230 VAC
Watts (Output)375
Current Provided60 Amps at 5 Volts (V1)
5 Amps at 12 Volts (V2)
3 Amps at 3.3 Volts (V3)
5.1 Amps at 1.5 Volts (V4)
Temperature Operating Range0 to 45 degrees Celsius
32 to 113 degrees Fahrenheit
Humidity5% to 90% Relative Humidity (Operating)
0% to 95% Relative Humidity (Storage)
AltitudeSea level to 10,000 feet (3 km)
Heat Generation1280 BTUs per hour (one power supply)
Agency ListingsUL 1950
CSA-C22.2
EN60950
FCC Part 15, Subpart B (Class A)
EN55022, 1987/EN50081
FCC Class B
C.I.S.P.R. 22: 1985
EN50082-1, 1992
IEC 801-2, 1991
IEC 801-3, 1984
IEC 801-4, 1988
VCCI V-3/94.04 (Class A & Class B)
EN 61000-4-2: 1995
EN 61000-4-3: 1995
EN 61000-4-4: 1995
EN 61000-4-5: 1995
EN 61000-4-6: 1996
EN 61000-4-8: 1993
EN 61000-4-11: 1994
ENV 50204: 1996
Page 1-12
Omni Switch/Router Chassis and Power Supplies
OmniS/R-9 and OmniS/R-9P
The OmniS/R-9 and OmniS/R-9P chassis have nine slots for an MPX and switching modules
(see figure below). Slots are numbered from 1 to 9 starting with the left-most slot. Slots for
two power supplies are located at the bottom of the chassis. A separate, removable fan tray
containing four fans is located above the power supply module bays.
Switching Modules
Omni Switch/Router
Management Processor
Module (MPX)
Fan Tray
PS1 (Power Supply 1)
PS2 (Power Supply 2)
Lifting Handle
The OmniS/R-9
A fully loaded OmniS/R-9 weighs nearly 100 lbs. Therefore, it is recommended that if you are
rack-mounting the chassis you use a rack mount shelf instead of just brackets. Using a shelf
will ensure that the weight of the chassis can be supported. In addition, the OmniS/R-9
contains side handles to make lifting and installation easier.
The OmniS/R-9 uses the
MPX. Slot 1 is reserved for the MPX; you cannot install a switching
module in Slot 1. You can install a switching module in Slot 2 (if an MPX is installed in Slot 1)
or an MPX. When dual-redundant MPXs are installed, one of them must be installed in Slot 1
and the other in Slot 2. Slots 3 through 9 are reserved for switching modules.
♦ Important Note ♦
You must have an
MPX acting as the management
module; you cannot use any version of the MPM. See
Chapter 2, “The Omni Switch/Router MPX,” for more
information on the MPX.
Page 1-13
Omni Switch/Router Chassis and Power Supplies
The OmniS/R-9 and OmniS/R-9P provide bays for two power supplies. The power supplies
are self-enclosed to allow safe hot-insertion and hot-removal. When two power supplies are
installed, they share the electrical load. If one should fail, the remaining power supply
automatically takes up the load without any disruption to the operation. See Chapter 1, “Omni
Switch/Router Chassis and Power Supplies,” for additional information on installing and
removing power supplies.
The OmniS/R-9 uses the following power supply:
OmniS/R-PS9-650The standard power supply. It can provide 650 Watts of power.
The OmniS/R-9P uses the following power supply:
OmniS/R-PS9-725This power supply can provide 725 Watts of power.
The OmniS/R-9P-48V uses the following power supply:
OmniS/R-PS9-DC725 A -48 Volt (input voltage) DC version of the OmniS/R-PS9-725 power
supply. This power supply can provide 725 Watts of power. It requires
the use of 12 to 14 gauge wire for connections to the DC power source.
See Connecting a DC Power Source to an OmniS/R-PS9-DC725 on page
1-27 for more information.
For additional information, see OmniS/R-9 Technical Specifications on page 1-15, OmniS/R-9P Technical Specifications on page 1-16 and OmniS/R-9P-48V Technical Specifications on page
1-17.
♦ Caution ♦
This unit may be equipped with two power
connections. To reduce the risk of electrical shock,
disconnect both power connections before servicing
the unit.
♦ VORSICHT ♦
Das Gerat kann mit zwei Netzanschlussen ausgestattet
sein. Um einen elektrischen Schlag zu vermeiden,
immer beide Anschlusse vor der Wartung vom Netz
trennen.
Weight96 lb. (43.55 kg), fully populated with modules and power
supplies.
Switching BackplaneUp to 22 Gbps (aggregate) switching fabric capacity
Voltage Range90-264 VAC, 47 to 63 Hz
Current Draw12 Amps at 100/115 VAC; 6 Amps at 230 VAC
Watts (Output)650
Current Provided120 Amps at 5 Volts
4 Amps at 12 Volts
6 Amps at 3.3 Volts
8 Amps at 1.5 Volts
Temperature Operating Range0 to 45 degrees Celsius
32 to 113 degrees Fahrenheit
Humidity5% to 90% Relative Humidity (Operating)
0% to 95% Relative Humidity (Storage)
AltitudeSea level to 10,000 feet (3 km)
Heat Generation2219 BTUs per hour (one power supply)
Agency ListingsUL 1950
CSA-C22.2
EN60950
FCC Part 15, Subpart B (Class A)
EN55022, 1987/EN50081
FCC Class B
C.I.S.P.R. 22: 1985
EN50082-1, 1992
IEC 801-2, 1991
IEC 801-3, 1984
IEC 801-4, 1988
VCCI V-3/94.04 (Class A & Class B)
EN 61000-4-2: 1995
EN 61000-4-3: 1995
EN 61000-4-4: 1995
EN 61000-4-5: 1995
EN 61000-4-6: 1996
EN 61000-4-8: 1993
EN 61000-4-11: 1994
ENV 50204: 1996
Certification IEC 950; FCC Title 47 CRF Part 15, Subpart B
(Class A & Class B); IEC EN55022, 1995 (Class A & Class B)
CISPR 22, 1995; IEC 1000-3-2; IEC 1000-3-3 (EN60555-2); IEC
1000-4-2 (EN61000-4-2, per EN50082-1, 1992); EN55024 IEC
1000-4-3 (EN61000-4-3, per EN50082-1, 1992); IEC 1000-4-4
(EN61000-4-4) Level 4; IEC 1000-4-5 (EN61000-4-5) Level 4;
IEC 1000-4-6 (EN61000-4-6); IEC 1000-4-8 (EN61000-4-8);
IEC 1000-4-11 (EN61000-4-11); ENV 50204: 1996.
Page 1-17
Omni Switch/Router Chassis and Power Supplies
Omni Switch/Router Power Requirements
Always make sure that the total power requirements of the modules in your chassis do not
exceed the limits of your power supply. To check the power consumption of your configuration, refer to the tables on the following pages and add up the DC Current Draw of all modules
in your switch. The tables beginning on page 1-19 list modules without an HRE-X and the
tables beginning on page 1-20 list modules with an HRE-X.
The total power consumption of all your modules should be below the current provided by
your power supply, which is listed in OmniS/R-3 on page 1-8 for the OmniS/R-3, OmniS/R-5
on page 1-10 for the OmniS/R-5 and OmniS/R-9 and OmniS/R-9P on page 1-13 for the
OmniS/R-9 and OmniS/R-9P. For power consumption and FCC compliance information for
Omni Switch/Router VoIP modules, consult your VoIP User Manual.
It is possible, but not recommended, to have a
configuration in which the current draw of the installed
modules exceeds the power provided by a single
power supply. However, such a configuration would
require two power supplies and would not allow you to
have power redundancy.
ESX-FM-24W-L310 Mbps Ethernet module with twenty-four
(24) fiber VF-45 ports
ESX-K-100FM/FS16W-L3
GSX-K-FM/FS-2W-L3Advanced Gigabit Ethernet module with two
WSX-S-2W-L3WAN module with 2 serial ports6.25B (STP cable)
WSX-SC-4W-L3WAN module with 4 serial ports7.75B (STP cable)
WSX-SC-8W-L3WAN module with 8 serial ports9.75B (STP cable)
WSX-BRI-SC-1W-L3WAN ISDN module with 1 serial and 1 BRI
Advanced Fast Ethernet (100 Mbps) module
with sixteen (16) fiber MT-RJ ports.
(2) fiber SC ports.
port
11.75B
14.5B
11.25B
6.75B (STP cable)
7.25B (STP cable)
FCC
Class
Approval
A (UTP cable)
A (UTP cable)
A (UTP cable)
A (UTP cable)
A (UTP cable)
WSX-BRI-SC-2W-L3WAN ISDN module with 2 serial and 2 BRI
ports
WSX-FT1-SC-1W-L3WAN module with 1 serial and 1 T1 or E1
port
WSX-FE1-SC-1W-L3WAN module with 1 serial and 1 T1 or E1
port
WSX-FT1-SC-2W-L3WAN module with 2 serial and 2 T1 or E1
ports
WSX-FE1-SC-2W-L3WAN module with 2 serial and 2 T1 or E1
ports
8.75B (STP cable)
A (UTP cable)
7.25B (STP cable)
A (UTP cable)
7.25B (STP cable)
A (UTP cable)
8.75B (STP cable)
A (UTP cable)
8.75B (STP cable)
A (UTP cable)
Page 1-20
Omni Switch/Router Chassis and Power Supplies
Grounding a Chassis
Omni Switch/Routers have two grounding screw holes on the back of the chassis. These
holes use 10-32 screws and are approximately 1 inch apart. In addition, these holes do not
have paint and are surrounded by a small paint-free rectangular section, which provides for a
good connection contact.
The figure below shows the location of the grounding screw holes on the back of an
OmniS/R-9. They are located approximately four (4) inches from the bottom of the chassis
and approximately one (1) inch from the left-hand side of the rear of the chassis.
Lifting Handle
Grounding Screw Holes
Grounding Screw Holes on an OmniS/R-9
On an OmniS/R-5, the grounding screw holes are located approximately one (1) inch from
the bottom of the chassis and approximately one (1) inch from the left-hand side of the rear
of the chassis.
On an OmniS/R-3, they are located approximately four (4) inches from the bottom of the
chassis and approximately one (1) inch from the left-hand side of the rear of the chassis.
Page 1-21
The Omni Switch/Router Hardware Routing Engine (HRE-X)
The Omni Switch/Router
Hardware Routing Engine (HRE-X)
The Omni Switch/Router Hardware Routing Engine (HRE-X) is available for the MPX and all
Omni Switch/Router switching modules. The HRE-X is a submodule, which plugs into an
Omni Switch/Router module, that provides high speed Layer 3 distributed routing for IP and
IPX traffic. The HRE-X intercepts frames from the switching logic and determines if a frame
should be switched or routed. If a frame needs to be routed, the HRE-X will automatically add
the appropriate routing information.
Backplane Connector
Module Front Panel
MPX with an HRE-X
The
HRE-X has the following restrictions:
• You must have Release 3.4.4 software, or later, on your Omni Switch/Router.
•Do not install an
•Do not install an
HRE-X on an MPX unless it is Revision A10, or later.
HRE-X on a GSX-FM/FS-4W unless it is Revision B04, or later.
HRE-X
Page 1-22
The Omni Switch/Router Hardware Routing Engine (HRE-X)
Each HRE-X routes up to 1.5 million packets per second. In an OmniS/R-9 with an HRE-X on
every switching module, for example, you could have up to 12 Mpps routed throughput. On
a per switch basis, the HRE-X also supports over 256,000 route entries and 64,000 Next Hop
destinations.
Valid HRE-X Configurations
You can configure an Omni Switch/Router chassis in one of two ways: with an HRE-X on
every single Omni Switch/Router switching module (distributed routing) or a single HRE-X on
the MPX (centralized routing).
Distributed Routing. In this configuration, you must install an HRE-X on every single switching
module in the chassis. In addition, you cannot install an HRE-X on the MPX. For example, in
an OmniS/R-9 with a single MPX, you would need eight (8) HRE-Xs for all the switching
modules. As a general rule, this configuration is recommended in networks of more than four
subnets from any one switch.
Centralized Routing. In this configuration, you must install the HRE-X on the MPX but not on
any Omni Switch/Router switching modules. The HRE-X will perform routing for all Omni
Switch/Router switching modules in the chassis. As a general rule, this configuration is recommended for networks of two to four subnets from any one switch.
HRE-X Router Registers versus Feature Limitations
The HRE-X has three (3) registers that can be programmed with a MAC address and mask that
allows it to recognize which destination MAC addresses it should act as a router for. IP Rout-
ing, Virtual Router Redundancy Protocol (VRRP), ATM Classical IP (CIP), and Channelized DS3
(i.e., M013) utilize at least one of these registers for their operation. This leads to a restriction
of the combination of these features that can be supported on an Omni Switch/Router at any
given time.
♦ Important Note ♦
ATMand M013 are not supported in Release 4.5.
The HRE-X registers are programmed on a first come, first served basis. Any attempt to
program more than three registers fails. In current release, the order which these features
program the
ATMCIP
1.
2. IP Routing (Note: If there is a second base MAC configured on the MPX, then it will also
take a second register.)
3.
M013
4. VRRP
For example, if a switch has two base MACs and a CIP group, then no other features can be
configured. Any combination of the above features will work given the available HRE-X registers. IP routing always takes one register (two in the dual base MAC case), leaving the other
features to compete for the remaining two (one in the dual base MAC case). The other
features attempt to program a register only if they are enabled.
HRE-X is as follows:
♦ Note ♦
ATMCIP is limited to 128 end node route cache entries.
Page 1-23
Connecting a DC Power Source to an OmniS/R-PS5-DC375
Connecting a DC Power Source to an
OmniS/R-PS5-DC375
The OmniS/R-5 can use a DC power supply called the OmniS/R-5-DC375. This power supply
contains a female power connector as shown in the figure below. This supply requires the
use of 12 gauge wire. A clamp inside each connector keeps the power wire tightly in place
during operation. This connector has side screws that can be used to remove the connector.
OmniS/R-PS5-DC375
(-)/(+)/GND
GND =
OmniS/R-5 DC Power Supply Connector Style
Installing DC Power Source Wire Leads
These instructions describe how to connect your 3-wire DC power source to the power
connector on your DC power supply. A small flat-tip screwdriver and a wire stripper are
required for this procedure.
1. Prepare the three (3) wires—12 gauge—that will plug into the power supply. First, make
sure they are not plugged into the 48-volt power source.
2. Next, use a wire stripper to carefully strip about a half-inch off the end of each wire,
removing the outer insulation to expose the copper core.
3. Twist the loose strands of copper wire together so that they form a tight braid. If possi-
ble, solder the entire braid of wire together for better conductivity.
4. Open the wire bay door for one of the three (3) power connector holes. The front of this
connector contains a row of square holes. It also contains three (3) circular holes on top
that contain screws; you loosen the screws in these holes to open the wire bay doors
(square holes) on the connector front so that you can insert the wire lead.
a. Insert a small flat-tip screwdriver into one of the top three (3) screw holes.
b. Loosen the screw so that the door for the wire bay on the connector front opens.
Page 1-24
Connecting a DC Power Source to an OmniS/R-PS5-DC375
Loosen Screw.
(-)/(+)/GND
Door inside square hole will
open when screw is loosened in
top circular hole.
Opening Wire Bay on Screw-Style Connector
5. Insert the appropriate wire lead into the open circular hole. The silkscreen above each
hole indicates which power lead—negative (-), positive (+), or ground (GND)—to plug
into which hole. The lead you insert must match the lead attached to the 48-volt power
source (i.e., negative to negative, positive to positive, ground to ground).
♦ Warning ♦
You must plug DC wire leads into the correct holes in
the DC power connector. Use the labels above the DC
power connector as a guide to positive, negative, and
ground connections.
If you plug wire leads into wrong holes the power
supply will not work and could result in damage.
Push the wire in far enough such that it reaches the back wall of the connector, about a
half inch inside.
(-)/(+)/GND
This end would plug into the
negative (-) power source. The
middle lead would plug into
the positive (+) power source
and the rightmost lead would
plug into the ground (GND).
Inserting the Wire Lead Into the Circular Hole
6. Close the wire bay. Use the small screwdriver (from Step 4a) to tighten the screw above
the wire bay into which you inserted the wire lead. The wire lead should be securely
attached inside the connector. You should be able to pull on the wire and not dislodge it.
Page 1-25
Connecting a DC Power Source to an OmniS/R-PS5-DC375
7. Repeat Steps 4 through 6 for the remaining two wire leads. Be sure that the end of each
lead attaches to the same power source that you connected to on the power supply (i.e.,
negative to negative, positive to positive, ground to ground).
Page 1-26
Connecting a DC Power Source to an OmniS/R-PS9-DC725
Connecting a DC Power Source to an
OmniS/R-PS9-DC725
The OmniS/R-9P can use a DC power supply called the OmniS/R-PS9-DC725. This power
supply contains a female power connector as shown in the figure below. This supply requires
the use of 10 gauge wire. A clamp inside each connector keeps the power wire tightly in
place during operation.
OmniS/R-PS9-DC725
GND/(+)/(-)
GND =
OmniS/R-9P DC Power Supply Connector Style
Installation Requirements
Caution: To reduce the risk of electric shock or energy hazards:
• The branch circuit overcurrent protection must be rated at a minimum of 30 A (amperes)
for the OmniS/R-9P PS9-DC725.
• Use 10 gauge (AWG - American Wire Gauge) solid copper conductors only for the
OmniS/R-9P PS9-DC725.
• A readily-accessible disconnect device that is suitably approved and rated shall be incorporated in the field wiring.
• This device is to be installed in a restricted access area in accordance with the NEC
(National Electrical Code) or the authority having jurisdiction.
• Connect this device to a reliably grounded SELV (Safety Extra Low Voltage) or a centralized DC source.
Page 1-27
Connecting a DC Power Source to an OmniS/R-PS9-DC725
Installing DC Power Source Wire Leads
These instructions describe how to connect your 3-wire DC power source to the power
connector on your DC power supply. A small flat-tip screwdriver and a wire stripper are
required for this procedure.
1. Prepare the three (3) wires—10 gauge—that will plug into the power supply. First, make
sure they are not plugged into the 48-volt power source.
2. Next, use a wire stripper to carefully strip about a half-inch off the end of each wire,
removing the outer insulation to expose the copper core.
3. Twist the loose strands of copper wire together so that they form a tight braid. If possi-
ble, solder the entire braid of wire together for better conductivity.
4. Open the wire bay door for one of the three (3) power connector holes. The front of the
power connector contains a row of square holes. It also contains three (3) circular holes
(located directly above the square holes) that contain screws; you loosen the screws in
these holes to open the wire bay doors (square holes) on the connector front so that you
can insert the wire leads into the power connector.
a. Insert a small flat-tip screwdriver into one of the three (3) screw holes.
b. Loosen the screw so that the door for the wire bay on the connector front opens.
Loosen Screw.
GND/(+)/(-)
Door inside square hole will
open when screw is loosened in
circular hole directly above it.
Opening Wire Bay on DC Power Supply Connector
5. Insert the appropriate wire lead into the open circular hole. The silkscreen above each
hole indicates which power lead—ground (GND), positive (+), or negative (-)—to plug
into which hole. The lead you insert must match the lead attached to the 48-volt power
source (i.e., ground to ground, positive to positive, negative to negative).
♦ Warning ♦
You must plug DC wire leads into the correct holes in
the DC power connector. Use the labels above the DC
power connector as a guide to ground, positive and
negative connections.
Page 1-28
If you plug wire leads into the wrong holes, the power
supply will not work and could result in damage.
Push the wire in far enough so that it reaches the back wall of the connector, about a half
inch inside.
Connecting a DC Power Source to an OmniS/R-PS9-DC725
GND/(+)/(-)
This end would plug into the
ground (GND). The middle
lead would plug into the positive (+) power source and the
rightmost lead would plug into
the negative (-) power source.
Inserting the Wire Lead Into the Circular Hole
6. Close the wire bay door. Use the small screwdriver (from Step 4a) to tighten the screw
above the wire bay into which you inserted the wire lead. The wire lead should be
securely attached inside the connector. You should be able to pull on the wire and not
dislodge it.
7. Repeat Steps 4 through 6 for the remaining two wire leads. Be sure that the end of each
lead attaches to the same power source that you connected to on the power supply (i.e.,
ground to ground, positive to positive, negative to negative).
Page 1-29
Replacing Power Supplies (9-Slot Chassis)
Replacing Power Supplies (9-Slot Chassis)
If a power supply ever needs to be replaced in an Omni Switch/Router 9-slot Chassis (e.g.,
OmniS/R-9 or OmniS/R-9p), it is strongly recommended that power supplies not be mixed,
except under the conditions and exceptions shown in the following table.
In all cases, swapping operations must be made with
the power switch of the replacement power supply
turned OFF. Failure to turn the power switch off during
the swapping operation may cause the data switch to
reset and restart.
Replacing Power Supplies (9-Slot Chassis)
♦ Note ♦
If One of Two
Power Supplies
Fails
650-wattPre-M1Both
650-wattM1 or laterFailed
725-wattAnyFailed
RevisionReplaceWith
Power
Supplies
Power
Supply
Power
Supply
Two 650-watt (Revision M1+)
or two 725-watt Power
Supplies
One 650-watt (Revision M1+)
or one 725-watt Power
Supply
One 725-watt Power Supply
Page 1-30
2The Omni Switch/Router MPX
Omni Switch/Router Management Processor Module
(MPX) Features
The MPX provides such system services as maintenance of user configuration information,
downloading of switching module software, basic bridge management functions, basic routing functions, the SNMP management agent, access to the User Interface software, and
Advanced Routing. In addition, the MPX can operate in a redundant configuration with
another MPX.
♦ Important Note ♦
If you have a single
installed in Slot 1.
MPX in your chassis, it must be
With the optional
Power Supplies,” you can increase routing performance to 1.5 million packets per second.
HRE-X, which is described in Chapter 1, “Omni Switch/Router Chassis and
MPX Technical Specifications
Flash Memory8 MB (32 MB maximum); 16 MB required for Release 4.4 and
later
SIMM (DRAM) Memory32 MB (128 MB maximum); 64 MB required for Release 4.4 and
later
SDRAM Memory16 MB
MAC Addresses Supported4096
Switching BackplaneUp to 22 Gbps (aggregate) switching fabric capacity
Serial Ports2 (1 male DB9 modem connector and 1 female DB9 console
connector)
Ethernet (10 Mbps) Switch
Management Ports
Current Draw3.75 amps without an HRE-X
1 copper RJ-45 or fiber (ST) port for switch management
functions.
5.25 amps with an HRE-X
♦ Warning ♦
Do not install any version of the
MPM-1G, MPM-II, MPM-III, or original MPM) in a chassis
with an MPX or any OmniSwitch switching module.
Installing an MPM in a chassis with an MPX can cause
physical damage.
MPM (i.e, MPM-C,
Page 2-1
Omni Switch/Router Management Processor Module (MPX) Features
Warning Label. This label indicates
that the module contains an optical
transceiver (on the MPXs with fiber
ST Ethernet ports only).
OK1 (Hardware Status). This dual-
state LED is on Green when the MPX
has passed power-on hardware diagnostics successfully. On Amber when
the hardware has failed diagnostic
tests. If the OK1LED is alternating
Green and Amber, then file system
compaction is in progress.
Caution
Do not power down the Omni
Switch/Router or insert any
modules while the OK1LED is
alternating Green and Amber.
If you do, file corruption may
result and you will not be able
to restart the switch.
OK2 (Software Status). Blinking Green
when the MPX has successfully loaded software to the switching modules.
Blinking Amber when the MPX is in a
transitional state, such as when it first
boots up. If the OK2LED blinks
Amber for an extended period of time
(i.e., more than a minute), then you
should reboot the switch.
Caution
Do not insert or remove any
modules while the MPX OK2
LED is blinking Amber. If you
do, file corruption may result
and you will not be able to
restart the switch.
Module
Status
LEDs
CLASS 1 LASER PRODUCT
PS2
PS1
SEC
PRI
LINK
COL
ACT
TX
RX
OK1
OK2
TEMP
MODEM
CONSOLE
ETHERNET
MPX 10 mm
Module
Status
LEDs
Label. This label will indicate the
Ethernet management port type. It
will read either MPX 10 mm (multimo-
de fiber Ethernet port) or MPX 10 (cop-
per RJ-45 Ethernet port).
PS1 (Power Supply 1 Status).
This dual-state LED is on Green
when the switch is receiving the
proper voltage from Power Supply 1. It is on Amber when
Power Supply 1 is on, but not
supplying the correct amount of
voltage to power the switch, or is
installed and turned off. The PS1
LED is Off when the Power Sup-
ply 1 is not present.
PS2 (Power Supply 2 Status).
This dual-state LED is on Green
when the Omni Switch/Router is
receiving the proper voltage from
Power Supply 2. It is on Amber
when Power Supply 2 is on, but
not supplying the correct amount
of voltage to power the switch,
or is installed and turned off. The
PS2 LED is Off when Power Sup-
ply 2 is not present.
TEMP (Temperature). On Yel-
low to warn that the internal
switch temperature is approaching maximum operating limits.
Note that this LED comes on
before the temperature limit is
reached.
PRI (Primary MPX). On Green
when this MPX is the active, or
controlling, MPX. It is also on
Green when this is the only MPX
installed in the switch.
Page 2-2
SEC (Secondary MPX). On Green
when this MPX is the secondary
MPX in a redundant MPX configuration. As the secondary MPX,
this module is in hot standby
mode.
Omni Switch/Router Management Processor Module (MPX) Status LEDs
Omni Switch/Router Management Processor Module (MPX) Features
MPX 10
OK1
OK2
PS2
PS1
SEC
PRI
TEMP
Modem Connector. A male serial DB-
9 DTE connector for switch file transfers and network management functions.
The MPX module includes one row
of LEDs for the Ethernet management port.
ACT (Activity). On Green when
data is transmitted or received
on the Ethernet management
port.
LINK (Link Status/Disabled).
On Green continuously when a
good cable connection exists.
Off when a good connection
does not exist.
COL (Collision). On Yellow
when a collision has been
detected on the port.
Port
LEDs
ACT
LINK
MODEM
CONSOLE
COL
Console Connector. A female serial
DB-9 DCE connector for switch file
transfers and network management
functions.
ETHERNET
Ethernet Management Port. Copper
RJ-45 (shown here) and fiber ST
ports are available for rapid switch
file transfers and network management functions.
MPX Management Connectors
Page 2-3
MPX Serial and Ethernet Management Ports
MPX Serial and Ethernet Management Ports
You can gain access to switch management software through one of the two serial (RS-232)
ports on the MPX or the Ethernet management port. The two serial ports are configured with
9-pin “D” connectors (DB-9) per the IBM AT serial port specification. One port, called the
“modem” port, is male and the other, called the “console” port, is female. See MPX Manage-ment Connectors on page 2-3 for illustrations of these ports.
The modem port is a Data Terminal Equipment (
DTE) connector, which is typically connected
to a modem. You can also connect directly from this port to a PC or terminal with a standard
null-modem cable available in most computer equipment stores.
♦ Note ♦
The modem port is hard-wired for
DTE communica-
tion; you do not need to set any jumpers.
The console port is a Data Communication Equipment (
DCE) connector, which can be directly
connected to a PC, terminal, or printer.
MPX Console Port Specifications
Pin NumberStandard Signal
Name
1Not Used
15
2RDFrom MPX
3TDTo MPX
4,Not Used
69
5GND
Direction
Page 2-4
6Not Used
7Not Used
8Not Used
9Not Used
ShellShield GND
MPX Console Port
MPX Serial and Ethernet Management Ports
MPX Modem Port Specifications
15
69
Ethernet Management Port
Pin NumberStandard Signal
Name
1Not Used
2RDTo MPX
3TDFrom MPX
4,DTRFrom MPX
5GND
6DSRTo MPX
7RTSFrom MPX
8CTSTo MPX
9Not used
ShellShield GND
Direction
MPX Modem Port
The MPX also supports an out-of-band Ethernet port for high-speed uploads and switch
management functions. With this port, you can access the Omni Switch/Router over a
network via Telnet or FTP.
You can use the Boot prompt to configure an
IP address for the Ethernet management port or
you can use the ethernetc command, which is described in Chapter 6, “Configuring Management Processor Modules.” After you have assigned an IP address to the Ethernet management port, you can use it to Telnet into the UI.
See Appendix A, “The Boot Line Prompt,” for documentation on configuring the Ethernet
management port with the boot prompt.
♦ Important Note ♦
On some revisions of the
MPX, you must configure the
Ethernet management port with the boot prompt before
you can use the
ethernetc command.
See the table on the following page for available Ethernet management port types.
Page 2-5
MPX Serial and Ethernet Management Ports
MPX ModelEthernet Management Port
Type (Cable Type)
MPX-TRJ-45 (UTP)100 meters
MPX-FLST (Multimode fiber)2 kilometers
Max. Cable
Distance
Configuring MPX Serial Ports
The serial communications parameters for the two MPX serial ports are set by default to the
following:
• 9600 bits per second (bps)
• 8 data bits
• 1 stop bit
• no parity
• no hardware flow control (Windows 95)
Each serial port supports serial data rates of
must remove the default baud rate shunt (E1), which fixes the baud rate at 9600 bps, before
you can change the baud rate. This shunt is located near the front end of the MPX’s circuit
board, just to the right of the Ethernet management port.
1200, 9600, 19200, and 38400 bps. However, you
To change the serial port configuration parameters, use the
ser command, which is described
in detail in Chapter 6, “Configuring Management Processor Modules.”
Page 2-6
Flash Memory and Omni Switch/Router Software
Flash Memory and Omni Switch/Router Software
Flash memory on the MPX holds the Omni Switch/Router’s executable images and configuration data. When a switching module comes online, the MPX downloads the appropriate image
file for that module to that module’s memory. Image files (those with the img extension)
contain executable code for different switching modules and software features.
The following table lists Omni Switch/Router image files that may be present in
memory along with the module(s) or feature with which the file is used.
File NameModules/Function Used With
mpx.img
mpx.cmd
mpm.cfg
mpm.cnf
desx.imgEthernet port stress test software
diagx.imgDiagnostics software
esx.imgAll GSX and ESX modules
fwdx.imgIP Fastpath and Firewall software
gated.imgAdvanced Routing software
ipcntrl.imgIP control software
ipms.imgIPMS software
isdn.imgWSX-BRI-SC
mrd.imgAdvanced Routing software
ntp.imgNetwork Time Protocol (NTP) software
MPX
MPX flash
policy.confPolicyManager file comprised of a MAC address and time that uniquely
identifies the switch(es) to which the policy applies
policy.imgPolicyView software
qos.imgQuality of Service (QOS) software
rav.imgRADIUS authentication software
t1e1drv.imgWSX-FT1/E1-SC
text_cfg.imgText-based configuration software
vrrp.imgVRRP software
vsmboot.ascBoot file for Voice Over IP (VOIP) modules
vsx.imgVoice Over IP (VOIP) modules
web.imgHTTP browser client software
wsx.imgWSX-S-2W, WSX-SC-4W, WSX-SC-8W (Frame Relay and PPP software)
Page 2-7
Flash Memory and Omni Switch/Router Software
Flash Memory Guidelines
The switch alters flash memory contents when a software command requests a configuration
change, when a remote administrator downloads a new executable image, or when the
switch fails and a record of the failure is written to flash memory. These operations require
available space in flash memory.
In general the flash memory on the switch should always have at least 75000 bytes available
at all times. In a switch with 8 MB of flash memory, for example, the images in flash should
never exceed 7.45 MB. (You can view how much flash memory is available through the
command.) This will allow enough room in flash for booting and configuration file expansions. If your flash memory exceeds this amount, then you need to delete some images from
flash.
In addition, the flash file system has a limit of 256 files, including configuration, logging, and
other files. When this 256-file limit is reached, configuration file expansions will cease and
new files will not be able to be loaded. This file limit applies even if there is enough memory
available in flash.
Not all image files in flash memory are required—only those that must be used with the
switching modules in your Omni Switch/Router. You can remove any files that are not
required for your Omni Switch/Router configuration by using the
if you do not have T1/E1 ports, you could remove the t1e1drv.img file.
ls
rm command. For example,
Page 2-8
MPX Redundancy
MPX Redundancy
In order to provide greater reliability, Omni Switch/Router supports two MPXs in a
primary/secondary redundant configuration. If the primary MPX fails, the secondary MPX takes
over without any operator intervention.
♦ Warning ♦
Do not install any version of the
MPM 1G, MPM II, or original MPM) in a chassis with an
MPX. Installing an MPM in a chassis with an MPX can
cause physical damage. If you want to configure an
Omni Switch/Router chassis in a redundant configuration, you must use two MPXs.
MPM (i.e, MPM-C,
When you have two
MPXs in one chassis, they must be installed in Slots 1 and 2, and only
one can be active. MPXs will assume one of the following roles.
• Primary - The
MPX that is currently active and processing commands. It is also the MPX that
is communicating via Telnet, FTP, etc.
• Secondary - An
MPX that is currently not the primary. It has sufficient software to commu-
nicate with the primary MPX. (For full redundancy, the secondary MPX should also have
the same software version as the primary and its configuration should be in sync with the
primary.) In this state, it is capable at any time of assuming the primary role.
LEDs on each MPX reflect the same status with the exception that the primary’s PRI LED is
The
on whereas the secondary’s SECLED is on. Also, the secondary MPX’s OK2LED will not flash
amber during board transitions. See Omni Switch/Router Management Processor Module (MPX) Status LEDs on page 2-2 for locations of the LEDs.
♦ Important Note ♦
To support redundancy, your
MPXmust be Revision
A14 or higher.
Change-Over Procedure
The secondary MPX continuously monitors the primary MPX. This monitoring serves two
purposes: 1) to notify the secondary MPX that the primary is alive and processing, and 2) to
update the configuration and thus keep the two
that the primary is no longer operational, it will begin to take over as primary. When a
secondary MPX becomes primary it resets all the other modules in the chassis and performs a
primary MPX initialization.
MPXs in sync. If the secondary MPX detects
There are four states for an
MPX configuration. You can view the current MPX state through
the slot command. These states are described in the table below. Note that for a
primary/secondary configuration to be in a “redundant” state, the relationship between the
two MPXs must meet the conditions shown in the table.
Page 2-9
MPX Redundancy
The primary MPX has the ability to transfer files to and from the secondary MPX. In the condition where the secondary MPX has an older version of software (Software Fallback), it is not
desirable to update the configuration file of the secondary. It is therefore the default not to
update the configuration file on the secondary if the secondary is running an earlier version
of software. You can force the update using appropriate commands in the mpm menu. (See
Chapter 6, “Configuring Management Processor Modules,” for more information on commands
in the mpm menu.)
MPX StateRequirement for State
RedundantBoth MPXs are running the same version of software
and the configurations are in sync.
Configuration FallbackBoth MPXs are running the same version of software
but the configurations are different.
Software FallbackThe MPXs are running different versions of software,
and their configurations may be the same or different.
NoneThere is only one MPX installed in the chassis.
♦ Note ♦
Do not remove a primary
renounce command (described in Chapter 6, “Configur-
MPX without performing a
ing Management Processor Modules”) first.
MPX Redundancy Commands
A set of commands exists to monitor the primary and secondary MPXs. These commands are
covered in detail in Chapter 6, “Configuring Management Processor Modules.” Note that you
can attach a terminal to both MPXs in a chassis; however, you will see a different responses
depending on which is primary and which is secondary. You should execute all UI
commands from the primary MPX except for those commands specifically addressing the
secondary MPX. For example, commands are available to control and monitor the secondary
MPX from the primary MPX (e.g., the sls command lists files on the secondary MPX from the
primary
MPX).
Page 2-10
3Omni Switch/Router
Switching Modules
Omni Switch/Router switching modules perform software filtering, translations between
dissimilar network interfaces, and hardware-based switching. Omni Switch/Router switching
modules have an additional on-board interface connector for the HRE-X.
Currently, Omni Switch/Router switching modules consist of Gigabit Ethernet modules, autosensing 10/100 Ethernet modules, Fast (100 Mbps) Ethernet modules, 10 Mbps Ethernet
modules,
Omni Switch/Router modules require the use of an
Omni Switch/Router chassis (see Chapter 1, “Omni
Switch/Router Chassis and Power Supplies”). Do not
install an Omni Switch/Router module in an
OmniSwitch chassis and do not install an OmniSwitch
module in an Omni Switch/Router chassis.
ESX-K-100FM/FS-16WAdvanced 16-port Fast Ethernet (100 Mbps) switching module
•
WAN Modules
WSX-S-2W2 serial ports that support the frame relay or PPP protocol.
•
WSX-SC-4W/8W4 or 8 serial ports that support the frame relay or PPP protocol.
•
WSX-FT1/E1-SC-1W/2W1 or 2 T1/E1 ports and one or two serial ports that support the
•
frame relay or PPP protocol
WSX-BRI-SC-1W/2W1 or 2 UPS (Universal Serial Port) and 1 or 2 ISDN-BRI ports that
•
support Frame Relay or PPP
Voice Over IP Modules
Voice Over
mented in the VoIP User Manual.
VSX-A4, 6, 8, 14, or 16 analog RJ-11 ports supporting FXS and FXO
•
IP (VOIP) modules for the Omni Switch/Router are listed below and are docu-
interfaces, including T.38 FAX
VSX-VSD2 or 4 digital T1 or E1 (Euro PRI and Qsig) ports, including
•
T.38 FAX
Page 3-1
Omni Switch/Router Hardware Routing Engine
HRE-X offers high-speed Layer 3 switching from 1.5 to 12.0 million packets per second
The
(Mpps) in a fully loaded chassis. See Chapter 1, “Omni Switch/Router Chassis and Power
Supplies,” for more information on the HRE-X.
♦ Important Note ♦
Omni Switch/Router switching modules require an
MPX. You cannot install any version of the MPM (i.e,
MPM-III, MPM-C, MPM-1G, MPM-II, or original MPM) in a
chassis with an MPX. See Chapter 2, “The Omni
Switch/Router MPX,” for more information on the MPX.
Page 3-2
Required Image Files
See the table below for the required images files for the MPX and switching modules. You
must load the image file (or files) listed for the corresponding module or it will not run.
Required Image Files
ModuleImage File(s)
MPXmpx.img, fpx.img
ESX-K-100C-32Wesx.img
ESX-K-100FM/FS-16Wesx.img
GSX-K-FM/FS/FH-2Wesx.img
VSX-VSAvsx.img, text_cfg.img, vsmboot.asc
VSX-VSDvsx.img, text_cfg.img, vsmboot.asc
WSX-S-2Wwsx.img
WSX-SC-4Wwsx.img
WSX-SC-8Wwsx.img
WSX-BRI-SC-1W/2Wwsx.img, isdn.img
WSX-FT1-SC-1W/2Wwsx.img, t1e1drv.img
WSX-FE1-SC-1W/2Wwsx.img, t1e1drv.img
Page 3-3
Installing a Switching Module
Installing a Switching Module
All switching modules can be inserted and removed from the switch chassis while power is
on or off without disrupting the other modules. A standard screwdriver is required for install-ing and removing switching modules. You can also hot swap modules of the same type while
the switch is active.
Switching modules may be installed in any slot other than Slot 1. (Slot 1 is reserved for an
MPX.) In a setup with redundant MPX modules, Slots 1 and 2 are reserved for the MPXs. Addi-
tional modules can be installed in any available slot. (OmniS/R-3 slots are numbered 1 to 3
starting from the topmost slot. OmniS/R-5 slots are numbered 1 to 5 starting from the topmost
slot. OmniS/R-9 slots are numbered 1 to 9 starting from the left.)
To insert a switching module follow these instructions:
1. Holding the module firmly in both hands, carefully slide it into the card guide. The front
panel connectors and
component side of the board should face right (toward the power supply). In a 3- or 5slot Omni Switch/Router, the component side should face up.
The module should slide in easily. A large amount of force is not necessary and should
not be used. If any resistance is encountered, check to be sure that the module is aligned
properly in the card guide.
♦ Anti-Static Warning ♦
Before handling a switching module, free your hands
of static by wearing a grounding strip, or by grounding
yourself properly. Static discharge can damage the
components on the switching module.
LEDs should face outward. In a 9-slot Omni Switch/Router, the
Switch Module
Slide Card In
Card Guides
Page 3-4
Installing a Switching Module
2. Once the module is in the slot, close the two card ejectors (one on each end of the
module) by pressing them in toward the module until they snap into place.
3. Use a standard screwdriver to tighten the two screw fasteners to secure the module inside
the chassis. The screws should be tight enough such that a screwdriver would be necessary to loosen the screws.
Page 3-5
Installing a Switching Module
Removing a Switching Module
To remove a switching module, follow the instructions below. If you are “hot swapping” the
modules (i.e., removing and inserting while power is on), see Hot Swapping a Switching Module on page 3-7.
1. Loosen the screw fasteners at the top and bottom of the switching module using a stan-
dard screwdriver.
2. Gently unlock the two card ejectors by pulling them out away from the module.
3. With both hands, carefully pull the module free of the chassis enclosure.
♦ Anti-Static Warning ♦
Before handling a switching module, free your hands
of static by wearing a grounding strip, or by grounding
yourself properly. Static discharge can damage the
components on your switching module.
Page 3-6
Hot Swapping a Switching Module
Hot Swapping a Switching Module
You may remove and insert switching modules while the switch is running. This technique is
referred to as “hot swapping.” When you hot swap, you must replace the module with the
same module type as the one you removed. For example, if you remove an ESX switching
module you must replace it with another ESX switching module.
♦ Note ♦
You cannot hot swap a module into a previously
empty slot. To use an empty slot, you must power
down your chassis.
Perform the following steps to safely hot swap a switching module. (You cannot hot swap a
primary
hot swap during network down times.
1. At the system prompt, enter
MPX module.) Since this procedure could possibly disrupt the network, it is best to
swap on <minutes>
where minutes is the number of minutes you want the switch to be in swap mode (the
default is 5 minutes). A message similar to the following will be displayed.
Swap is ON for 5 minutes
The swap mode must be enabled (ON) to insert a switching module. If not, the system
may halt or restart. (See Chapter 6, “Configuring Management Processor Modules,” for
more information on the swap command.)
♦ Caution ♦
Modules can only be reset and hot-swapped when the
MPX’sOK2 light is in its normal flashing green state.
2. Enter
reset, followed by the slot number of the switching module you want to hot swap,
then followed by the word disable. (See Chapter 36, “Running Hardware Diagnostics,” for
more information on the reset command.) For example, if you want to hot swap the
switching module in slot 4, you would enter
reset 4 disable
at the system prompt. Next, the switch will prompt you to confirm the reset. The following is an example of the display for an
ESX module. The display for other types of switch-
ing modules will be similar.
Resetting slot of type F-Ether/M may crash system
Attempt reset anyway {Y/N}? (N) :
Press y and then press <Enter>. If the switching module is in slot 4, a message similar to
the following will be displayed.
resetting slot 4 to disable
3. The MPX’sOK2LED will flash amber 1 or 2 times, then return to normal flashing green.
The switching module’s OK1LED will turn amber and the OK2LED will not be illuminated. Remove all cables attached to ports on the switching module that you are going to
swap out.
Page 3-7
Hot Swapping a Switching Module
4. Carefully remove the switching module from the chassis and put it in a safe place. (See
Removing a Switching Module on page 3-6 for instructions on removing a switching
module.) The MPX’sOK2LED will flash amber 1 or 2 times, then return to normal flashing
green. In addition, the swap time will reset to its original value. (For example, if you set
the swap time to 15 minutes in step 1, you will have 15 minutes again, regardless of how
much time has elapsed.)
Removing or inserting the switching module while the
MPX’sOK2LED is flashing amber can cause the system
to reset.
5. Carefully insert the new switching module into the chassis. (See Installing a Switching
Module on page 3-4 for instructions on inserting a switching module.)
When re-installing a module during a hot swap, it must
make a proper connection to the switch backplane.
The connection is made when you close the card ejectors. Always close the card ejectors firmly and briskly,
without hesitation. Closing them too slowly can cause
the switch to halt or restart.
♦ Warning ♦
♦ Caution ♦
The
MPX’sOK2LED will flash amber 1 or 2 times, then return to normal flashing green. If,
after hot-swapping modules, the MPX’sOK2LED continues to flash amber for more than
about 8 seconds, it means that the switch needs to be reset.
The swap time will again reset to its original value.
6. Re-insert the cables that were removed in step 3 into the new switching module.
7. Enter
reset followed by the slot number for the new switching module. For example, if
the new switching module is in slot 4, you would enter
reset 4
at the system prompt. Next, the switch will prompt you to confirm the reset. The following is an example of the display for an
ESX module. The display for other types of switch-
ing modules will be similar.
Resetting slot of type F-Ether/M may crash system
Attempt reset anyway {Y/N}? (N) :
Press y and then press <Enter>. If the switching module is in slot 4, a message similar to
the following will be displayed.
resetting slot 4 to enable
8. The MPX’sOK2LED will flash amber 1 or 2 times, then return to normal flashing green.
The switching module’s OK1LED will turn from amber to solid green and the OK2LED
will be blinking green. If the OK1LED on the switching module is amber, then the hardware has failed diagnostics or the corresponding image file for the module is not in flash
memory. If the OK2LED on the switching module is solid amber, then the module failed
to download software from the MPX.
Page 3-8
9. If the hot swapping mode has not timed out, enter
swap off
at the system prompt. Something like the following will then be displayed.
Swap is OFF, timeout is 5 minutes
usage swap { ON [ minutes ] | OFF [ minutes ] }
Diagnostic Tests
All switching modules are subjected to extensive power-on diagnostics during the Power-On
Self-Test cycle (POST). These diagnostics are designed to be as extensive as possible without
causing disruption to external networks or requiring special test connections. While the diagnostics are running, the MPXOK2LED will be flashing green. LEDs on the switching module
can provide information on the success or failure of these tests. Also refer to Chapter 35,
“Troubleshooting,” for information on error conditions reflected in the LED displays.
More extensive diagnostic tests are available for off-line testing of switching modules. See
Chapter 36, “Running Hardware Diagnostics,” for further information.
Diagnostic Tests
Page 3-9
Handling Fiber and Fiber Optic Connectors
Handling Fiber and Fiber Optic Connectors
Using fiber is extremely simple, but a few important rules should always be followed:
Step 1. Use Premium Grade Jumper Cables with Duplex SC Connectors
There are many brands of fiber optic jumper cables, with a wide range of quality between
each manufacturer. Premium cables do three things well:
• They provide a good polish on the fiber optic connector endface (where the light exits the
cable). Endface geometries must be exceptionally precise and aligned to extremely tight
tolerances. The better the endface geometry, the lower the loss and more consistent the
connection. Poor connector interfaces will reflect light back into the laser, causing an
increase in laser noise.
• They mate well with other connector interfaces. Chances are the manufacturer of the
jumper cable will not be the same as the manufacturer of the transceiver connector interface. Premium jumper cables mechanically align themselves well into most transceiver
interfaces. This provides both better performance as well as better repeatability. You will
always see a variance in transceiver power due to connector alignment, often as much as
0.3 to 0.7 dB. Good jumper cables help reduce this variance.
• They continue to mate well after many insertions and removals. Premium grade jumper
use premium connectors that maintain their mechanical integrity up to and beyond 2000
insertion cycles.
For better repeatability, always use duplex (two connectors fused together and terminated to
two cables)
ceiver. Two simplex connectors inserted into a transceiver interface will often have up to 3
dB greater variation in repeatability compared to duplex connectors.
Never bend the fiber optic cable beyond its recommended minimum bend radius (1.2 inches
minimum). This introduces bend losses and reflections that will degrade the performance of
your system. It can also damage the fiber, although fiber is much tougher than most would
assume. Still, it is highly recommended to buy only jumper cables with 3mm Kevlar jacketing, which offer superior protection and longer life.
SC connectors on your jumper cables when connecting to a fiber-optic trans-
Step 2. Keep Your Fiber Optic Connectors Clean
Unlike electrical connectors, fiber-optic connectors need to be extremely clean to ensure
good system performance. Microscopic particles on the connector endface (where the light
exits the connector) can degrade the performance of your system, often to the point of failure. If you have low-power output from a fiber-optic transceiver or a fault signal from your
equipment, cleaning your fiber-optic connectors should always be done before trouble shooting.
Follow the steps below to clean your fiber optic connector:
1. Hold the connector cleaner tool in the palm of your left hand and, with the silver shutter
upwards, rotate the cloth-forwarding lever (located on the right side of the tool) with your
thumb away from your body. As the lever winds the cleaning cloth inside the case, it
simultaneously opens the silver shutter located at the top of the unit.
Page 3-10
Handling Fiber and Fiber Optic Connectors
2. Keeping your thumb pressed on the cloth-forwarding lever, press the optical plug ferrule
endface against the cleaning cloth and drag the plug down toward your body (there
should be arrows on the top of the tool that indicate the proper wiping direction). The
connector is now clean.
3. Release the cloth-forwarding lever, allowing it to return to its initial position.
A cleaning cloth reel can enable over 400 cleanings and is replaceable. When cables are not
being used, always put the plastic or rubber endcaps back on the connector to ensure cleanliness.
Step 3. Keep the Transceiver Interface Clean
If you have cleaned your connectors, but still experience low-power output from a fiber-optic
transceiver or a fault signal from your equipment, you should clean the transceiver interface
by blowing inert dusting gas inside the transceiver interface. This removes dust and other
small particles that may block the optical path between the optics of the transceiver and the
connector’s endface.
Step 4. Attenuate Properly
Often equipment using laser-based transceivers need to have the optical path attenuated
when performing loop-back testing or testing between two pieces of equipment. Too much
optical power launched into the receiver will cause saturation and result in system failure. If
you are using single mode fiber and you do not know the power output of the laser, it is
always best to use a 10 dB attenuator when testing. Using the wrong type of attenuator will
introduce problems, most notably reflection of light back into the laser, often resulting in
excess noise and causing system failure.
Inline attenuators eliminate the need for additional jumper cables and thus reduce the number
of connection interfaces. This increases the integrity of the optical path resulting in a more
accurate test.
Page 3-11
Gigabit Ethernet Modules
Gigabit Ethernet Modules
Gigabit Ethernet connections can be used as network backbones or in a wiring closet. The
following Omni Switch/Router Gigabit Ethernet modules are available:
GSX-K-FM/FS/FH-2WAdvanced switching module with two (2) Gigabit Ethernet back-
•
This module is described and illustrated in the following sections.
GSX-K-FM/FS/FH-2W
The GSX-K-FM/FS/FH-2W Gigabit Ethernet backbone switching module contains two fiber SC
connectors that support two fully switched 1000Base-LX (long-distance fiber transmissions) or
1000Base-SX (short-distance fiber transmission ports). The GSX-K-FM/FS/FH-2W can be used as
a backbone connection in networks where Gigabit Ethernet is used as the backbone media.
bone connections using fiber (SC) connectors.
♦ Note ♦
Wait at least five (5) seconds after a cable is pulled
from a
prevent packets from being dropped.
GSX module before reinserting it. This will
GSX-K-FM/FS/FH-2W can be factory configured with intermediate-reach single mode or
The
multimode fiber ports (see GSX-K-FM/FS/FH-2W Technical Specifications on page 3-13 for
more information). The intermediate-reach single mode version is referred to as the GSX-K-FS-
2W; the long-reach single mode version is referred to as the GSX-K-FH-2W; and the multimode
version is referred to as the GSX-K-FM-2W.
The ports are color coded to differentiate the mode: multimode connectors are black, longhaul single mode connectors are yellow, and intermediate-reach single mode connectors are
blue. (See Handling Fiber and Fiber Optic Connectors on page 3-10 for proper handling of SC
connectors and fiber-optic cable.)
GSX-K-FM/FS/FH-2W takes advantage of new Gigabit Ethernet/Fast Ethernet ASIC technol-
The
ogy known as “Kodiak.” This module provides 4 priority levels and 256 queues per Kodiak
ASIC.
♦ Note ♦
Kodiak-based modules support up to 4 levels of priority (0-1, 2-3, 4-5, 6-7). This is not compatible with the
implementation of VLAN priority of Mammoth-based
modules. Kodiak based priority VLANs can only be
used with other Kodiak based priority VLANs.
With the optional
second per module and up to 12 Mpps in a fully-loaded 9-slot chassis.
HRE-X you can increase routing performance to 1.5 million packets per
Page 3-12
Gigabit Ethernet Modules
GSX-K-FM/FS/FH-2W Technical Specifications
Number of ports2
Connector TypeSC
Standards Supported802-3z, 1000Base-LX, and 1000Base-SX
Data Rate1 Gigabit per second (full duplex)
Maximum Frame Size1,518 bytes
MAC Addresses Supported8,192
Connections Supported1000Base-LX or 1000Base-SX connection to backbone
or server
Cable SupportedMultimode and single mode
Output Optical Power-9.5 to -4 dBm (Multimode)
-9.5 to -3 dBm (Intermediate-reach single mode)
0 to +5 dBm (Long-reach single mode)
Input Optical Power-17 to 0 dBm (Multimode)
-20 to -3 dBm (Intermediate-reach single mode)
-24 to -3 dBm (Long-reach single mode)
Cable DistanceMultimode fiber: ≈ 220 m
Intermediate-reach single mode fiber: ≈ 10 km
Long-reach single mode fiber: ≈ 70 km
Current Draw5.25 amps without an HRE-X
6.75 amps with an HRE-X
♦ Special Note ♦
The single mode version of this module has been
deemed:
CLASS 1 LASER PRODUCT
LASER KLASSE 1
LUOKAN 1 LASERLAITE
APPAREIL A LASER DE CLASSE 1
to IEC 825:1984/CENELEC HD 482 S1.
Page 3-13
Gigabit Ethernet Modules
Warning Label. This label indicates
that the module contains an optical
transceiver.
This Gigabit Ethernet module
includes one row of LEDs for each
port. The LEDs for a given port display in the row labeled with the
port number. Definitions for the
LEDs are given below.
RX (Receive). On Green when
the corresponding port is
receiving data.
TX (Transmit). On Green when
the corresponding port is transmitting data.
LINK (Link Status/Disabled).
On Green when the corresponding port has a valid physical link and a signal is present.
Under normal conditions, this
LED should always be on when
a cable is connected.
Port
LEDs
CLASS 1 LASER PRODUCT
LINK
TX
1
2
OK1
OK2
RX
1
2
TX
RX
TX
RX
GSX-K sm
Module
LEDs
Module Label. This label will indicate
the GSX-K-FM/FS/FH-2W type. It
will read either GSX-K mm (multimode
cable), GSX-K sm (intermediate-reach
single mode cable), or GSX sm K
long reach (long-reach single-mode
cable).
OK1 (Hardware Status). On
Green when the module has
passed diagnostic tests successfully. On Red when the hardware
has failed diagnostics.
OK2 (Software Status). Blinking
Green when the module software was downloaded successfully and the module is
communicating with the MPX.
Blinking Red when the module is
in a transitional state. On solid
Red if the module failed to
download software from the
MPX.
SC connectors will be color
coded to indicate multimode
(Black) or intermediate-reach
single mode (Blue).
2-Port Advanced Gigabit Ethernet Switching Module
Page 3-14
Auto-Sensing 10/100 Ethernet Modules
Auto-Sensing 10/100 Ethernet Modules
Alcatel’s Omni Switch/Router 10/100 Ethernet modules can be used to connect networks with
a mix of 10 Mbps and 100 Mbps workstations or as a network backbone.
The following Omni Switch/Router 10/100 and Fast Ethernet modules are available:
ESX-K-100C-32WAdvanced switching module with thirty-two (32) auto-sensing 10/100
•
Mbps desktop connections using RJ-45 ports.
This module is described and illustrated in the following sections.
Ethernet RJ-45 Pinouts
The figure and table below illustrate the pinouts used on RJ-45 ports in Omni Switch/Router
10/100 Ethernet modules.
Ethernet RJ-45 Specifications
Pin NumberStandard Signal Name
1RD +
18
2RD –
3TD +
4,Not Used
5Not Used
6TD –
7Not Used
8Not Used
ESX-K-100C-32W
The ESX-K-100C-32W Omni Switch/Router 10/100 Ethernet switching module contains 32 ports
that each support a fully switched 10 or 100 Mbps connection in full- or half-duplex mode.
This module offers high density 10/100 connectivity for desktop connections. Each port can
auto-sense the connection speed and automatically switch at that speed. You configure
whether you want to use the auto-sensing functionality through the 10/100cfg command.
By default, each port is configured to operate in half-duplex, auto-sensing mode. You can
configure full-duplex mode on each port through
allow you to manually configure ports through the 10/100cfg command. An additional software command, 10/100vc, allows you to view the current line speed and link mode of each
port connection. The 10/100cfg and 10/100vc commands are described in Chapter 15, “Managing Ethernet Modules.”
10/100cfg. Auto-sensing may be disabled to
Page 3-15
Auto-Sensing 10/100 Ethernet Modules
The 32 RJ-45 ports may connect to unshielded or shielded twisted pair (UTP) cable (see ESX-
K-100C-32W Technical Specifications on page 3-17 for more information). Each port may
connect to a single high-speed device or a hub serving multiple devices. The ESX-K-100C-32W
can be used in the wiring closet with a mix of 100 Mbps Ethernet devices and 10 Mbps Ethernet devices that are transitioning to higher speed connections.
Module ports are divided into four (4) banks of eight (8) ports. Ports are numbered from 1 to
8 within each of the four banks. The four banks are labelled
simplifies the display of LEDs, which are organized as a matrix (see 32-Port Advanced Auto-Sensing 10/100 Ethernet Switching Module on page 3-18). Software commands will number
these ports 1 through 32, with Port A1 as 1, Port B1 as 9, C1 as 17, D1 as 25, etc.
ESX-K-100C-32W takes advantage of new Gigabit Ethernet/Fast Ethernet ASIC technology
The
known as “Kodiak.” This module provides 4 priority levels and 256 queues per Kodiak ASIC.
Kodiak-based modules support up to 4 levels of priority (0-1, 2-3, 4-5, 6-7). This is not compatible with the
implementation of
modules. Kodiak based priority VLANs can only be
used with other Kodiak based priority VLANs.
A, B, C, and D. This grouping
♦ Note ♦
VLAN priority of Mammoth-based
With the optional
HRE-X you can increase routing performance to 1.5 million packets per
second per module and up to 12 Mpps in a fully-loaded 9-slot chassis.
Page 3-16
Auto-Sensing 10/100 Ethernet Modules
ESX-K-100C-32W Technical Specifications
Number of ports32
Connector TypeRJ-45
Standards SupportedIEEE 802.3; IAB RFCs 826, 894
Data Rate10 or 100 Mbps (full or half duplex)
Maximum Frame Size1,518 bytes
MAC Addresses SupportedESX-K-100C-32W: 1,024
ESX-K-100C-32W4: 4,096
Connections Supported10BaseT hub or device
100BaseTx hub or device
Cable Supported10BaseT
Unshielded twisted-pair (UTP)
100BaseTx
Unshielded twisted-pair:
Category 5, EIA/TIA 568
Shielded twisted-pair
Category 5, 100 ohm
Maximum Cable Distance100 m
Current Draw10.25 amps without an HRE-X
11.75 amps with an HRE-X
Page 3-17
Auto-Sensing 10/100 Ethernet Modules
OK1 (Hardware Status). On Green
when the module has passed diagnostic tests successfully. On Amber
when the hardware has failed diagnostics or if the corresponding
image file for the module is not in
flash memory.
OK2 (Software Status). Blinking
Green when the module software
was downloaded successfully and
the module is communicating with
the MPX. Blinking Amber when the
module is in a transitional state. On
solid Amber if the module failed to
download software from the MPX.
Module
LEDs
ESX-K 10/100
OK2
OK1
A
C
1
3
57
1
3
57
1x
3x
A
5x7x
1x
1
4
3
4
62
8
4
62
8
D
57
1
3
57
B
62
8
4
62
8
Each LED corresponds to a port on
the module. When an LED is on
Port
Green continuously, a good cable
LEDs
connection exists. The LED will
blink Green when traffic is transmitted or received on the port.
Alcatel’s Omni Switch/Router Fast Ethernet modules can be used to connect networks with
100 Mbps workstations or as a network backbone.
The following Omni Switch/Router Fast Ethernet modules are available:
ESX-K-100FM/FS-16WAdvanced switching module with sixteen (16) Fast Ethernet (100
•
Mbps) backbone connections using MT-RJ ports.
This module is described and illustrated in the following sections.
ESX-K-100FM/FS-16W
The ESX-K-100FM/FS-16W Omni Switch/Router Fast Ethernet switching module has sixteen (16)
fiber MT-RJ ports that each support a fully-switched 100 Mbps connection in full-duplex mode.
This module provides high-speed backbone connectivity. It also supports backbone features
such as 802.1q and OmniChannel. Each port uses the full 100 Mbps of bandwidth in each
direction (see ESX-K-100FM/FS-16W Technical Specifications on page 3-20). The single mode
version is referred to as the ESX-K-100FS-16W; the multimode version is referred to as the ESX-
K-100FM-16W. Multimode and single mode connectors are differentiated by color: multimode
connectors are black and single mode connectors are blue.
♦ Note ♦
If your network currently uses
order MT-RJ-to-SC cables from Alcatel.
The MT-RJ fiber port supports full-duplex operation. You can configure half-duplex mode on
each port through 10/100cfg. An additional software command, 10/100vc, allows you to view
the current line speed and link mode of each port connection. The 10/100cfg and 10/100vc
commands are described in Chapter 15, “Managing Ethernet Modules.”
ESX-K-100FM/FS-16W is best used as a backbone connection in networks where Fast Ether-
The
net is used as the backbone media. Each 100Base-Fx port may also connect to a single hightraffic device, such as a mail or file server.
ESX-K-100FM/FS-16W takes advantage of new Gigabit Ethernet/Fast Ethernet ASIC technol-
The
ogy known as “Kodiak.” This module has provides 4 priority levels and 256 queues per
Kodiak
With the optional
second per module and up to 12 Mpps in a fully-loaded 9-slot chassis.
ASIC.
♦ Note ♦
Kodiak-based modules support up to 4 levels of priority (0-1, 2-3, 4-5, 6-7). This is not compatible with the
implementation of
modules. Kodiak based priority VLANs can only be
used with other Kodiak based priority VLANs.
HRE-X you can increase routing performance to 1.5 million packets per
VLAN priority of Mammoth-based
SC connectors, you can
Page 3-19
Fast (100 Mbps) Ethernet Modules
ESX-K-100FM/FS-16W Technical Specifications
Number of ports16
Connector TypeMT-RJ
Standards SupportedIEEE 802.3; IAB RFCs 826, 894
Data Rate100 Mbps (full duplex)
Maximum Frame Size1,518 bytes
MAC Addresses Supported8,192
Connections Supported100Base-Fx connection to backbone or server
Each LED corresponds to a port on
the module. When an LED is on
Green continuously, a good cable
connection exists. The LED will
blink Green when traffic is transmitted or received on the port.
Port
LEDs
CLASS 1 LASER PRODUCT
9
13
14
15
16
12
OK1
OK2
5
1
2
3
4
5
6
7
8
1
2
3
4
8
ESX-K 100 sm
Module
LEDs
Module Label. This label will indicate
the ESX-100FM/FS-16W type. It will
read either ESX-K 100 mm (multimode
cable) or ESX-K 100 sm (single mode
cable).
OK1 (Hardware Status). On
Green when the module has
passed diagnostic tests successfully. On Red when the hardware
has failed diagnostics.
OK2 (Software Status). Blinking
Green when the module software was downloaded successfully and the module is
communicating with the MPX.
Blinking Red when the module is
in a transitional state. On solid
Red if the module failed to
download software from the
MPX.
MT-RJ connectors will be color
coded to indicate multimode
(Black) or single mode (Blue).
16-Port Advanced Fast Ethernet Switching Module
9
10
11
12
13
14
15
16
Page 3-21
WAN Modules
WAN Modules
The Omni Switch/Router currently supports the following Wide Area Network (WAN)
modules:
• WSX-S-2WProvides two serial ports that support Frame Relay or PPP.
• WSX-SCProvides four or eight serial ports that support Frame Relay or PPP
• WSX-FT1/E1-SCProvides one or two T1/E1 ports and one or two serial ports that
• WSX-BRI-SCProvides one or two Universal Serial Ports (USPs) ports and one or two
All of these modules are described and illustrated in the sections beginning on page 3-27.
A
Switch/Router High-Speed Module (HSX). The HSX contains RISC processors, RAM for holding
software image files, ASICs for performing switching, and Content Addressable Memory (CAM)
for storing MAC addresses. You plug your cable into the WSX submodule, but it is the HSX
module that connects to the switch’s backplane.
with data compression.
support Frame Relay or PPP with data compression.
ISDN-BRI ports that support Frame Relay or PPP with data compression.
WSX switching module is actually a submodule, or daughtercard, that attaches to an Omni
WAN Pinouts
The figures and tables on the following pages illustrate the pinouts used on Omni
Switch/Router WAN modules. Please note that the signal commonly knows as “remote loopback” (LL) is not supported on the WAN serial port (see WAN Serial Port Specifications on
page 3-25). In addition, CTP2, CTP1, and CTP0 are assigned to CS(B), DR(B), and CD(B),
respectively, on the serial port. The later are not used in the cable configurations that require
the former.
See Appendix B, “Custom Cables,” for information on cables used to connect the serial
connector to different interface types.
Page 3-22
18
WAN Modules
WAN BRI Port Specifications
(S/T Interface)
Pin NumberStandard Signal Name
1Not Used
2Not Used
3Rcv + from TE
4,Rcv - from TE
5Xmt + from TE
6Xmt - from TE
7Not Used
8Not Used
18
WAN BRI Port Specifications
(U Interface)
Pin NumberStandard Signal Name
1Not Used
2Not Used
3Xmt to /Rcv from Network
4,Xmt to /Rcv from Network
5Not Used
6Not Used
7Not Used
8Not Used
Page 3-23
WAN Modules
18
WAN T1/E1 Port Specifications
Pin NumberStandard Signal Name
1Rx_Ring
2Rx_Tip
3Chassis GND
4,Tx_Ring
5Tx_Tip
6Chassis GND
7Chassis GND
(A jumper is provided for
connecting Pins 7 and 8 to the
chassis ground, if required.)
8Chassis GND
(A jumper is provided for
connecting Pins 7 and 8 to the
chassis ground, if required.)
113
1426
WAN Serial Port Numbering
Page 3-24
WAN Serial Port Specifications
Alcatel SPIEIA-530RS-449
Generic
Signal Name
Shield--Shield1--1--1
Signal Ground--AB7AB7SG19
Transmitted
Data
Received DataDCERD(A)3BB(A)3RD(A)6
Transmit Clock DCETC(A)15DB(A)15ST(A)5
Receive ClockDCETC(A)17DD(A)17RT(A)8
Ext. Transmit
Clock
Request To
Send
Clear To SendDCECS(A)5CB(A)5CS(A)9
Data Set Ready DCEDR(A)6CC(A)6DM(A)11
Data Terminal
Ready
Data Carrier
Detect
Local Loopback DTELL18LL18LL10
Remote
Loopback
Ring IndicatorDCERI/TM25--------
Test ModeDCERI/TM25TM25TM18
Cable Type 4--CTP418n/cn/c
Cable Type 3--CTP326n/cn/c
Cable Type 2--CTP213
Cable Type 1--CTP122
Cable Type 0--CTP010
SourceMnemonic PinMnemonic PinMnemonic Pin
DTETD(A)2BA(A)2SD(A)4
TD(B)14BA(B)14SD(B)22
RD(B)16BB(B)16RD(B)24
TC(B)12DB(B)12ST(B)23
TC(B)9DD(B)9RT(B)26
DTEXC(A)24DA(A)24TT(A)17
XC(B)11DA(B)11TT(B)35
DTERS(A)4CA(A)4RS(A)7
RS(B)19CA(B)19RS(B)25
CS(B)13CB(B)13CS(B)27
DR(B)22CC(B)22DM(B)29
DTETR(A)20CD(A)20TR(A)12
TR(B)23CD(B)23TR(B)30
DCECD(A)8CF(A)8RR(A)13
CD(B)10CF(B)10RR(B)31
DTERL21RL21RL14
WAN Modules
continued on next page...
Page 3-25
WAN Modules
WAN Serial Port Specifications (cont.)
X.21/X.26V.35RS232
Generic
Signal Name
Shield----1--A--1
Signal Ground--G8102BAB7
Transmitted
Data
Received DataDCER(A)4104(A)RBB3
Transmit Clock DCE----114(A)YDB15
Receive ClockDCES(A)6115(A)VDD17
Ext. Transmit
Clock
Request To
Send
Clear To SendDCE----106DCB5
SourceMnemonic PinMnemonic PinMnemonic Pin
DTET(A)2103(A)PBA2
T(B)9103(B)S
R(B)11104(B)T
114(B)AA
S(B)13115(B)X
DTEB(A)7113(A)UDA24
B(B)14113W
DTEC(A)3105CCA4
C(B)10
Data Set Ready DCE----107ECC6
Data Terminal
Ready
Data Carrier
Detect
Local Loopback DTE----141LLL18
Remote
Loopback
Ring IndicatorDCE----125JCE22
Test ModeDCE----142NNTM25
Cable Type 4--n/cn/c
Cable Type 3--n/cn/c
Cable Type 2--
Cable Type 1--
Cable Type 0--
DTE----108HCD20
DCEI(A)5109FCF8
I(B)12
DTE----140NRL21
Page 3-26
WSX-S-2W
The WSX-S-2W supports two (2) serial ports, which can provide access rates from 9.6 Kbps to
2 Mbps. The WSX-S-2W also supports three types of clocking (internal, external, and split). See
WSX-S-2W Technical Specifications on page 3-27 for more information.
♦ Note ♦
The
WSX-S-2W does not support hardware compres-
sion.
The
WSX-S-2W can sense and auto-configure for any of five serial cable types (RS-232, V.35,
X.21, RS-530, and RS-449). A WSX-S-2W port is normally considered a physical DTE device. It
can be turned into a physical DCE device—for speed or clocking purposes— by plugging in a
DCE cable. The WSX-S-2W senses whether a DCE or DTE cable is connected.
Software in the switch allows you to configure parameters for the Frame Relay or Point-toPoint Protocol (
tion at the WSX-S-2W board, port, or virtual circuit level. Extensive statistics are provided at
each level. Software commands for Frame Relay are described in Chapter 29, “Managing
Frame Relay”; commands for PPP are described in Chapter 30, “Point to Point Protocol.”
PPP). Software commands allow you to view the status of the WAN connec-
WAN Modules
With the optional
HRE-X you can increase routing performance to 1.5 million packets per
second per module and up to 12 Mpps in a fully-loaded 9-slot chassis.
WSX-S-2W Technical Specifications
Number of ports2
Connector TypeHigh-density 26-pin shielded serial
Protocols SupportedFrame Relay and Point-to-Point (PPP)
Data Rates Supported9.6, 19.2, 56, 64, 128, 256, 512,
Connections SupportedPhysical Data Terminal Equipment (DTE) or
Data Communication Equipment (DCE)
Cable SupportedDTE or DCE in the following types:
R2-232, V.35, X.21, RS-530, RS-449
Power Consumption5.25 amps (without an HRE-X)
6.75 amps (with an HRE-X)
Page 3-27
WAN Modules
STA (Status). On Green con-
tinuously when the port connection is operational. Off
when the port is disabled or
the cable is detached. Blinking On/Off if cable is attached
but receive control data is
detected as down.
This LED also blinks during
initialization, diagnostics, or
when invalid data is being
exchanged on the port.
TX (Transmit). On “half-
bright” Green when idle and
Green with occasional flickers
when the port is transmitting
data.
RX (Receive). On “half-bright”
Green when idle and Green
with occasional flickers when
the corresponding port is
receiving data.
Port
LEDs
STA
OK1
OK2
RX
WSX
OK1 (Hardware Status). On
Green when the module has
Module
LEDs
passed diagnostic tests successfully. On Amber when the
hardware has failed diagnostics or if the corresponding
image file for the module is not
in flash memory.
TX
1
2
OK2 (Software Status). Blinking
Green when the module software was downloaded successfully and the module is
communicating with the MPX.
Blinking Amber when the module is in a transitional state. On
solid Amber if the module
failed to download software
1
2
from the MPX.
Page 3-28
2-Port WAN Frame Relay Switching Module
WSX-SC
The WSX-SC supports 4 or 8 serial ports, each of which can provide access rates from 9.6
Kbps to 2 Mbps. The 4-port version is referred to as the WSX-SC-4W, and the 8-port version is
referred to as the WSX-SC-8W. The WSX-SC supports STAC hardware compression and three
types of clocking (internal, external, and split). See WSX-SC Technical Specifications on page
3-30 for more information.
WSX-SC can sense and auto-configure for any of five serial cable types (RS-232, V.35, X.21,
The
RS-530, and RS-449). A WSX-SC port is normally considered a physical DTE device. It can be
turned into a physical DCE device—for speed or clocking purposes— by plugging in a DCE
cable. The WSX-SC board senses whether a DCE or DTE cable is connected.
Software in the switch allows you to configure parameters for the Frame Relay or Point-toPoint Protocol (
tion at the WSX-SC board, port, or virtual circuit level. Extensive statistics are provided at each
level. Software commands for Frame Relay are described in Chapter 29, “Managing Frame
Relay”; commands for PPP are described in Chapter 30, “Point to Point Protocol.”
PPP). Software commands allow you to view the status of the WAN connec-
WAN Modules
With the optional
HRE-X you can increase routing performance to 1.5 million packets per
second per module and up to 12 Mpps in a fully-loaded 9-slot chassis.
Page 3-29
WAN Modules
WSX-SC Technical Specifications
Number of ports4 or 8
Connector TypeHigh-density 26-pin shielded serial
Protocols SupportedFrame Relay and Point-to-Point (PPP)
Data Rates Supported9.6, 19.2, 56, 64, 128, 256, 512,