1-4-1. User Interfaces on the Front Panel (Button, LEDs and Plugs)----- 6
1-4-2. User Interfaces on the Rear Panel---------------------------------------- 8
1-5.VIEW OF THE OPTIONAL MODULES ------------------------------------------------- 9
2-1-3-1. Cabling Requirements for TP Ports --------------------------------13
2-1-3-2. Cabling Requirements for 1000SX/LX SFP Module------------13
2-1-3-3. Switch Cascading in Topology---------------------------------------14
2-1-4-1. Configuring the Management Agent of 8 Fast Ethernet + 2
Gigabit L2 Managed Switch through the Serial RS-232 Port-------18
2-1-4-2. Configuring the Management Agent of 8 Fast Ethernet + 2
Gigabit L2 Managed Switch through the Ethernet Port--------------20
3. OPERATION OF WEB-BASED MANAGEMENT --------------28
5-1.RESOLVING NO LINK CONDITION-------------------------------------------------238
5-2.Q&A----------------------------------------------------------------------------------238
APPENDIX A TECHNICAL SPECIFICATIONS ---------------------------------- 239
APPENDIX B NULL MODEM CABLE SPECIFICATIONS-------------------- 243
Circuit devices are sensitive to static electricity, which can damage their delicate
electronics. Dry weather conditions or walking across a carpeted floor may cause you to
acquire a static electrical charge.
To protect your device, always:
• Touch the metal chassis of your computer to ground the static electrical charge before
you pick up the circuit device.
• Pick up the device by holding it on the left and right edges only.
Electronic Emission Notices
Federal Communications Commission (FCC) Statement
This equipment has been tested and found to comply with the limits for a class A
computing device pursuant to Subpart J of part 15 of FCC Rules, which are designed to
provide reasonable protection against such interference when operated in a commercial
environment.
European Community (CE) Electromagnetic Compatibility Directive
This equipment has been tested and found to comply with the protection requirements
of European Emission S tandard EN55022/EN60555-2 and the Generic European Immunity
Standard EN50082-1.
EMC:
EN55022(1988)/CISPR-22(1985) class A
EN60555-2(1995) class A
EN60555-3
IEC1000-4-2(1995) 4K V CD, 8KV, AD
IEC1000-4-3(1995) 3V/m
IEC1000-4-4(1995) 1KV – (power line), 0.5KV – (signal line)
In this user’s manual, it will not only tell you how to install and connect your
network system but configure and monitor the 8 Fast Ethernet + 2 Gigabit L2
Managed Switch through the built-in CLI and web by RS-232 serial interface and
Ethernet ports step-by-step. Many explanation in detail of hardware and software
functions are shown as well as the examples of the operation for web-based
interface and command-line interface (CLI).
Overview of this user’s manual
Chapter 1 “Introduction” describes the features of 8 Fast Ethernet + 2 Gigabit
1-1. Overview of 8 Fast Ethernet + 2 Gigabit L2 Managed Switch
8 Fast Ethernet + 2 Gigabit L2 Managed Switch, implemented 8 10/100Mbps
TP + 2 Gigabit dual media ports with TP/SFP, is a standard switch that meets all
IEEE 802.3/u/x/z Gigabit, Fast Ethernet and Ethernet specifications. The switch can
be managed through RS-232 serial port via directly connection, or through Ethernet
port using Telnet or Web-based management unit, associated with SNMP agent.
With the SNMP agent, the network administrator can logon the switch to monitor,
configure and control each port’s activity in a friendly way. The overall network
management is enhanced and the network efficiency is also improved to
accommodate high bandwidth applications. In addition, the switch features
comprehensive and useful function such as QoS (Quality of Service), Spanning
Tree, VLAN, Port Trunking, Bandwidth Control, Port Security, SNMP/RMON and
IGMP Snooping capability via the intelligent software. It is suitable for both metroLAN and office application.
10/100/1000Mbps TP is a standard Ethernet port that meets all IEEE
802.3/u/x/z Gigabit, Fast Ethernet specifications. 1000Mbps SFP Fiber transceiver
is a Gigabit Ethernet port that fully complies with all IEEE 802.3z and 1000BaseSX/LX standards.
1000Mbps Single Fiber WDM (BiDi) transceiver is designed with an optic
Wavelength Division Multiplexing (WDM) technology that transports bi-directional
full duplex signal over a single fiber simultaneously.
For upgrading firmware, please refer to the Section 3-20 or Section 4-2-2 for
more details. The switch will not stop operating while upgrading firmware and after
that, the configuration keeps unchanged.
Support Quality of Service by the IEEE 802.1P standard. There are two
priority queue and packet transmission schedule using Weighted Round
Robin (WRR). User-defined weight classification of packet priority can be
based on either VLAN tag on packets or user-defined port priority.
Spanni ng Tree:
Support IEEE 802.1D, IEEE 802.1w (RSTP: Rapid Spanning Tree
Protocol) standards.
VLAN:
Support Port-based VLAN and IEEE802.1Q Tag VLAN. Support 256 active
VLANs and VLAN ID 1~4094.
Port Trunking:
Support static port trunking and port trunking with IEEE 802.3ad LACP.
Bandwidth Control:
Support ingress and egress per port bandwidth control.
Port Security:
Support allowed, denied forwarding and port security with MAC address.
SNMP/RMON:
SNMP agent and RMON MIB. In the device, SNMP agent is a client
software which is operating over SNMP protocol used to receive the
command from SNMP manager (server site) and echo the corresponded
data, i.e. MIB object. Besides, SNMP agent will actively issue TRAP
information when happened.
RMON is the abbreviation of Remote Network Monitoring and is a branch of
the SNMP MIB.
The device supports MIB-2 (RFC 1213), Bridge MIB (RFC 1493), RMON
MIB (RFC 1757)-statistics Group 1,2,3,9, Ethernet-like MIB (RFC 1643) and
so on.
IGMP Snooping:
Support IGMP version 2 (RFC 2236): The function IGMP snooping is used
to establish the multicast groups to forward the multicast packet to the
member ports, and, in nature, avoid wasting the bandwidth while IP
multicast packets are running over the network.
Before you start installing the switch, verify that the package contains the
following:
⎯ 8 Fast Ethernet + 2 Gigabit L2 Managed Switch
⎯ Modules (optional)
⎯ This User's Manual in CD-ROM
⎯ AC Power Cord
⎯ RS-232 Cable
Please notify your sales representative immediately if any of the aforementioned
items is missing or damaged.
1-3. Features
The 8 Fast Ethernet + 2 Gigabit L2 Managed Switch, a standalone off-theshelf switch, provides the comprehensive features listed below for users to perform
system network administration and efficiently and securely serve your network.
Hardware
•
• Supports 8-port 10/100M TP ports with Nway and auto MDIX function
• The switch supports 2 Gigabit dual media ports(TP/SFP) and 2 slots for
1-4. View of 8 Fast Ethernet + 2 Gigabit L2 Managed Switch
Fig. 1-1 Full View of 8 Fast Ethernet + 2 Gigabit L2 Managed Switch with SFP Module
1-4-1. User Interfaces on the Front Panel (Button, LEDs and Plugs)
There are 8 TP Fast Ethernet ports and 2 slots for optional removable
modules on the front panel of the switch. LED display area, locating on the front
panel, contains a CPURUN, Power LED and 1 0 ports working status of the switch.
TP Port Status: Link/ACT/SPD
TP Port Status: FDX/CO
Fiber Port Status Indication LEDs
Power Indication LED
RESET Button:
RESET button is used to
reset the management
system.
Fig. 1-2 Front View of 8 Fast Ethernet + 2 Gigabit L2 Managed Switch with SFP Module
In the switch, Port 9, 10 includes two types of media --- TP and SFP Fiber
(LC, BiDi LC…); this port supports 10/100/1000Mbps TP or 1000Mbps SFP Fiber
with auto-detected function. 1000Mbps SFP Fiber transceiver is used for highspeed connection expansion; the following are optional SFP types provided for the
switch:
⎯ 1000Mbps LC, MM, SFP Fiber transceiver
⎯ 1000Mbps LC, SM 10km, SFP Fiber transceiver
⎯ 1000Mbps LC, SM 30km, SFP Fiber transceiver
⎯ 1000Mbps LC, SM 50km, SFP Fiber transceiver
⎯ 1000Mbps BiDi LC, type 1, SM 20km, SFP Fiber WDM transceiver
⎯ 1000Mbps BiDi LC, type 2, SM 20km, SFP Fiber WDM transceiver
⎯ 1000Mbps LC, SM 10km, SFP Fiber transceiver with DDM
Fig. 1-4 Front View of 1000Base-SX/LX LC, SFP Fiber Transceiver
Fig. 1-5 Front View of 1000Base-LX BiDi LC, SFP Fiber Transceiver
⇒ In the switch, TP port supports MDI/MDI-X auto-crossover, so both types of
cable, straight-through (Cable pin-outs for RJ-45 jack 1, 2, 3, 6 to 1, 2, 3, 6 in
10/100M TP; 1, 2, 3, 4, 5, 6, 7, 8 to 1, 2, 3, 4, 5, 6, 7, 8 in Gigabit TP) and
crossed-over (Cable pi n-outs for RJ -45 jack 1, 2, 3, 6 to 3, 6, 1, 2) can be used.
It means you do not have to tell from them, just plug it.
⇒ Use Cat. 5 grade RJ-45 TP cable to connect to a TP port of the switch and the
other end is connected to a network-aware device such as a workstation or a
server.
⇒ Repeat the above steps, as needed, for each RJ-45 port to be connected to a
Gigabit 10/100/1000 TP device.
Now, you can start having the switch in operation.
• Power On
The switch supports 100-240 VAC, 50-60 Hz power supply. The power
supply will automatically convert the local AC power source to DC power. It does not
matter whether any connection plugged into the switch or not when power on, even
modules as well. After the power is on, all LED indicators will light up immediately
and then all off except the power LED still keeps on. This represents a reset of the
system.
• Firmware Loading
After resetting, the bootloader will load the firmware into the memory. It will
take about 30 seconds, after that, the switch will flash all the LED once and
automatically performs self-test and is in ready state.
2-1-2. Installing Chassis to a 19-Inch Wiring Closet Rail
Fig. 2-2
Caution: Allow a proper spacing and proper air ventilation for the cooling fan
at both sides of the chassis.
⇒ Wear a grounding device for electrostatic discharge.
⇒ Screw the mounting accessory to the front side of the switch (See Fig. 2-2).
⇒ Place the Chassis into the 19-inch wiring closet rail and locate it at the proper
position. Then, fix the Chassis by screwing it.
2-1-3. Cabling Requirements
To help ensure a successful installation and keep the network performance
good, please take a care on the cabling requirement. Cables with worse
specification will render the LAN to work poorly.
⎯ The grade of the cable must be Cat. 5 or Cat. 5e with a maximum length of
100 meters.
⇒ Gigabit Ethernet TP network connection
⎯ The grade of the cable must be Cat. 5 or Cat. 5e with a maximum length of
100 meters. Cat. 5e is recommended.
2-1-3-2. Cabling Requirements for 1000SX/LX SFP Module
It is more complex and comprehensive contrast to TP cabling in the fiber
media. Basically, there are two categories of fiber, multi mode (MM) and single
mode (SM). The later is categorized into several classes by the distance it supports.
They are SX, LX, LHX, XD, and ZX. From the viewpoint of connector type, there
mainly are LC and BiDi LC.
⎯ Gigabit Fiber with multi-mode LC SFP module
⎯ Gigabit Fiber with single-mode LC SFP module
⎯ Gigabit Fiber with BiDi LC 1310nm SFP module
⎯ Gigabit Fiber with BiDi LC 1550nm SFP module
The following table lists the types of fiber that we support and those else not
listed here are available upon request.
Theoretically, the switch partitions the collision domain for each port in switch
cascading that you may up-link the switches unlimitedly. In practice, the network
extension (cascading levels & overall diameter) must follow the constraint of the
IEEE 802.3/802.3u/802.3z and other 802.1 series protocol specifications, in which
the limitations are the timing requirement from physical signals defined by 802.3
series specification of Media Access Control (MAC) and PHY, and timer from some
OSI layer 2 protocols such as 802.1d, 802.1q, LACP and so on.
The fiber, TP cables and devices’ bit-time delay (round trip) are as follows:
Fiber Cable : 10.10/m TP to fiber Converter: 56
Bit Time unit : 1ns (1sec./1000 Mega bit)
Bit Time unit: 0.01μs (1sec./100 Mega bit)
Table 2-2
Sum up all elements’ bit-time delay and the overall bit-time delay of
wires/devices must be within Round Trip Delay (bit times) in a half-duplex network
segment (collision domain). For full-duplex operation, this will not be applied. You
may use the TP-Fiber module to extend the TP node distance over fiber optic and
provide the long haul connection.
• Typical Network Topology in Deployment
A hierarchical network with minimum levels of switch may reduce the timing
delay between server and client station. Basically, with this approach, it will
minimize the number of switches in any one path; will lower the possibility of
network loop and will improve network efficiency. If more than two switches are
connected in the same network, select one switch as Level 1 switch and connect all
other switches to it at Level 2. Server/Host is recommended to connect to the Level
1 switch. This is general if no VLAN or other special requirements are applied.
Case1: All switch ports are in the same local area network. Every port can access
each other (See Fig. 2-3).
Fig. 2-3 No VLAN Configuration Diagram
If VLAN is enabled and configured, each node in the network that can
communicate each other directly is bounded in the same VLAN area.
Here VLAN area is defined by what VLAN you are using. The switch
supports both port-based VLAN and tag-based VLAN. They are different in practical
deployment, especially in physical location. The following diagram shows how it
works and what the difference they are.
Case2a: Port-based VLAN (See Fig.2-4).
Fig. 2-4 Port-based VLAN Diagram
1. The same VLAN members could not be in different switches.
2. Every VLAN members could not access VLAN members each other.
3. The switch manager has to assign different names for each VLAN groups
at one switch.
2-1-4. Configuring the Management Agent of 8 Fast Ethernet + 2
Gigabit L2 Managed Switch
We offer you three ways to startup the switch management function. They
are RS-232 console, CLI, and Web. Users can use any one of them to monitor and
configure the switch. You can touch them through the following procedures.
Section 2-1-4-1: Configuring the Management Agent of 8 Fast Ethernet + 2 Gigabit
L2 Managed Switch through the Serial RS-232 Port
Section 2-1-4-2: Configuring the Management Agent of 8 Fast Ethernet + 2 Gigabit
L2 Managed Switch through the Ethernet Port
Note: Please first modify the IP address, Subnet mask, Default gateway and DNS
2-1-4-1. Configuring the Management Agent of 8 Fast Ethernet + 2 Gigabit L2
Managed Switch through the Serial RS-232 Port
To perform the configuration through RS-232 console port, the switch’s serial
port must be directly connected to a DCE device, for example, a PC, through
RS-232 cable with DB-9 connector. Next, run a terminal emulator with the default
setting of the switch’s serial port. With this, you can communicate with the switch.
In the switch, RS-232 interface only supports baud rate 57.6k bps with 8 data
bits, 1 stop bit, no parity check and no flow control.
RS-232
Terminal or Terminal Emulator
AC Line 100-240V 50/60 Hz RS-232 DB-9 Connector
8 Fast Ethernet + 2 Gigabit L2 Managed Switch
Default IP Setting:
IP address = 192.168.1.1
Subnet Mask = 255.255.255.0
Default Gateway = 192.168.1.254
RS-232 cable with female
DB-9 connector at both ends
Fig. 2-7
To configure the switch, please follow the procedures below:
1. Find the RS-232 DB-9 cable with female DB-9 connector bundled.
Normally, it just uses pins 2, 3 and 7. See also Appendix B for more
details on Null Modem Cable Specifications.
2. Attaches the DB-9 female cable connector to the male serial RS-232
DB-9 connector on the switch.
3. Attaches the other end of the serial RS-232 DB-9 cable to PC’s serial
port, running a terminal emulator supporting VT100/ANSI terminal with
The switch’s serial port default settings. For example,
Windows98/2000/XP HyperTerminal utility.
Note: The switch’s serial port default settings are listed as follows:
Baud rate 57600
Stop bits 1
Data bits 8
Parity N
Flow control none
4. When you complete the connection, then press <Enter> key. The login
prompt will be shown on the screen. The default username and
password are shown as below:
• Set IP Add ress, Subnet Mask and Default Gateway IP Address
Please refer to Fig. 2-7 CLI Management for details about the ex-factory
setting. They are default setting of IP address. You can first either configure your PC
IP address or change IP address of the switch, next to change the IP address of
default gateway and subnet mask.
For example, your network address is 10.1.1.0, and subnet mask is
255.255.255.0. You can change the switch’s default IP address 192.168.1.1 to
10.1.1.1 and set the subnet mask to be 255.255.255.0. Then, choose your default
gateway, may be it is 10.1.1.254.
Default Value 8 Fast Ethernet + 2 Gigabit L2
Managed Switch
IP Address
Subnet
Default Gateway
After completing these settings in the switch, it will reboot to have the
configuration taken effect. After this step, you can operate the management through
the network, no matter it is from a web browser or Network Management System
(NMS).
2-1-4-2. Configuring the Management Agent of 8 Fast Ethernet + 2 Gigabit L2
Managed Switch through the Ethernet Port
There are three ways to configure and monitor the switch through the
switch’s Ethernet port. They are CLI, Web browser and SNMP manager. The user
interface for the last one is NMS dependent and does not cover here. We just
introduce the first two types of management interface.
8 Fast Ethernet + 2 Gigabit L2 Managed Switch
Default IP Setting:
IP = 192.168.1.1
Subnet Mask = 255.255.255.0
Default Gateway = 192.168.1.254
Ethernet LAN
Assign a reasonable IP address,
For example:
IP = 192.168.1.100
Subnet Mask = 255.255.255.0
Default Gateway = 192.168.1.254
Fig. 2-9
• Managing the 8 Fast Ethernet + 2 Gigabit L2 Managed Switch through
Ethernet Port
Before you communicate with the switch, you have to finish first the
configuration of the IP address or to know the IP address of the switch. Then,
follow the procedures listed below.
1. Set up a physical path between the configured the switch and a PC by a
qualified UTP Cat. 5 cable with RJ-45 connector.
Note: If PC directly connects to the switch, you have to setup the same
subnet mask between them. But, subnet mask may be different for the PC
in the remote site. Please refer to Fig. 2-9 about the switch’s default IP
address information.
2. Run CLI or web browser and follow the menu. Please refer to Chapter 3
and Chapter 4.
For IP address configuration, there are three parameters needed to be filled
in. They are IP address, Subnet Mask, Default Gateway and DNS.
IP address:
The address of the network device in the network is used for internetworking
communication. Its address structure looks is shown in the Fig. 2-11. It is “classful”
because it is split into predefined address classes or categories.
Each class has its own network range between the network identifier and
host identifier in the 32 bits address. Each IP address comprises two parts: network
identifier (address) and host identifier (address). The former indicates the network
where the addressed host resides, and the latter indicates the individual host in the
network which the address of host refers to. And the host identifier must be unique
in the same LAN. Here the term of IP address we used is version 4, known as IPv4.
With the classful addressing, it divides IP address into three classes, class A,
class B and class C. The rest of IP addresses are for multicast and broadcast. The
bit length of the network prefix is the same as that of the subnet mask and is
denoted as IP address/X, for example, 192.168.1.0/24. Each class has its address
range described below.
Class A:
Address is less than 126.255.255.255. There are a total of 126 networks can
be defined because the address 0.0.0.0 is reserved for default route and
127.0.0.0/8 is reserved for loopback function.
Bit # 0 1 7 8 31
0
Network address Host address
Class B:
IP address range between 128.0.0.0 and 191.255.255.255. Each class B
network has a 16-bit network prefix followed 16-bit host address. There are 16,384
(2^14)/16 networks able to be defined with a maximum of 65534 (2^16 –2) hosts
per network.
Bit # 01 2 15 16 31
10
Network address Host address
Class C:
IP address range between 192.0.0.0 and 223.255.255.255. Each class C
network has a 24-bit network prefix followed 8-bit host address. There are
2,097,152 (2^21)/24 networks able to be defined with a maximum of 254 (2^8 –2)
hosts per network.
Bit # 0 1 2 3 23 24 31
110
Publication date: January, 2006
Revision A1
Network address Host address
22
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