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About This Manual
Related Documentation
The related manuals are listed in the following table.
Manual Description
H3C S9500 Series Routing Switches
Operation Manual
It includes getting started, port, VLAN,
network protocols, routing protocols,
multicast protocols, QoS/ACL, MPLS,
STP, security, reliability, system
management, PoE, NAT-URPF-VPLS,
integrated management and appendix.
Organization
H3C S9500 Series Routing Switches Installation Manual is organized as follows:
H3C S9500 Series Routing Switches
Command Manual
Chapter Contents
1 Product Overview profiles the architecture and
2 LPU Modules focuses on the LPU boards of the S950 0
3 Installation Preparations lists the preparations and precautions
4 Switch Installation details the installation of the chassis,
5 System Debugging concentrates on the initial poweron and
It introduces all commands available in
the S9500 series, as well as a command
index.
specifications of the S9500 series.
series.
before installation.
boards and cable connection for the
S9500 series.
booting of the S9500 series.
6 Switch Monitoring and Maintenance presents the use of engineering labels.
7 Appendix A introduces the use of engineering labels.
8 Appendix B introduces the installation of the B68
cabinet.
9 Appendix C introduces the lighting protection for the
S9500 series.
Conventions
The manual uses the following conventions:
I. Command conventions
Convention Description
Boldface
italic
[ ]
{ x | y | ... }
[ x | y | ... ]
{ x | y | ... } *
[ x | y | ... ] *
# A line starting with the # sign is comments.
The keywords of a command line are in Boldface.
Command arguments are in italic.
Items (keywords or arguments) in square brackets [ ] are
optional.
Alternative items are grouped in braces and separated by
vertical bars. One is selected.
Optional alternative items are grouped in square brackets
and separated by vertical bars. One or none is selected.
Alternative items are grouped in braces and separated by
vertical bars. A minimum of one or a maximum of all can be
selected.
Optional alternative items are grouped in square brackets
and separated by vertical bars. Many or none can be
selected.
II. GUI conventions
Convention Description
< >
[ ]
/
Button names are inside angle brackets. For example, click
<OK>.
Window names, menu items, data table and field names
are inside square brackets. For example, pop up the [New
User] window.
Multi-level menus are separated by forward slashes. For
example, [File/Create/Folder].
III. Symbols
Convention Description
Means reader be extremely careful. Improper operation
Warning
Caution
Note Means a complementary description.
may cause bodily injury.
Means reader be careful. Improper operation may cause
data loss or damage to equipment.
Environmental Protection
This product has been designed to comply with the requirements on environmental
protection. For the proper storage, use and disposal of this product, national laws and
regulations must be observed.
Installation Manual
H3C S9500 Series Routing Switches Table of Contents
z Providing communication channels for signal exchange between boards
z Providing support for hot-swapping of boards
z Auto-identifying the slots
z Connecting PSUs, achieving distributed power supply for SRPU modules, LPU
modules and PSUs and providing corresponding control channels.
II. Structure
zS9502
It uses a passive backplane, which provides two LPU slots and two SRPU slots or
provides three LPU slots and one SRPU slot, one port for fan tray, and two -48V ports
(one for system power input and one for PoE entry).
zFor S9505
It uses a passive backplane, which provides five LPU slots and two SRP slots, one port
for fan tray and two –48V ports (one for system power input and one for PoE entry).
zFor S9508
It uses a passive backplane, which provides eight LPU slots and two SRP slots, one
port for fan tray and two –48V ports (one for system power input and one for PoE
entry).
zFor S9512
It uses a passive backplane, which provides 12 LPU slots and two SRP slots, one port
for fan tray and two –48V ports (one for system power input and one for PoE entry).
1.2.3 System Power Supply
Note:
z The S9500 series can be AC-powered or DC-powered. You can choose power
supply modules as needed.
zIf you want to change power supply type, just insert the power supply module of right
type.
zPower supply modules of the S9500 series are online-swappable.
The S9500 series can be AC-powered or DC-powered. The power supply is at the
bottom of the chassis, with a height of 3U (except S9502 switches). You can insert both
AC and DC power supply modules in the same slot based on your needs. The power
frame is in different compartment from the functional board frame and connected to the
One Console port, for local configuration management
One AUX port, for remote dialup configuration
management
Port
One 10Base-T/100Base-TX port for system management
and program upgrade
One RS232/485 port, for connecting external PoE power
frame when supported
One hot-swappable CF port
Max. power
consumption
60 W
2) SRP1N4 panel
The SRP1N4 module provides CF port, CF LED (CFS), 10Base-T/100Base-TX port,
RS232/485 port, Console port, AUX port, RESET button, LPU status LEDs, SRP1N4
One Console port, for local configuration management
One AUX port, for remote dialup configuration management
One 10Base-T/100Base-TX port for system management
Port
and program upgrade
One RS232/485 port, for connecting external PoE power
frame when supported
One hot-swappable CF port
Max. power
consumption
60 W
2) SRP1N5 panel
The SRP1N5 module provides CF port, CF LED (CFS), 10Base-T/100Base-TX port,
RS232/485 port, Console port, AUX port, RESET button, LPU status LEDs, SRP1N5
One Console port, for local configuration management
One AUX port, for remote dialup configuration
management
Port
One 10Base-T/100Base-TX port for system management
and program upgrade
One RS232/485 port, for connecting external PoE power
frame when supported
One hot-swappable CF port
One Console port, for local configuration management
One AUX port, for remote dialup configuration
management
One 10Base-T/100Base-TX port for system
Port
management and program upgrade
One RS232/485 port, for connecting external PoE
power frame when supported
One hot-swappable CF port
Two SMB coaxial clock ports
Max. power consumption70 W
2) SRP1N7 panel
The SRP1N7 module provides SMB coaxial clock ports, CF card, CF LED (CFS), 10
Base-T/100Base-TX port, RS232/485 port, Console port, AUX port, RESET button,
LPU status LEDs, SRP1N7 status LEDs (SFS, ACT, ALM, RUN), as shown in
.
1-14
Figure
Figure 1-14 SRP1N7 panel
3) User ports
zSMB coaxial clock port
The two SMB coaxial clock ports are used as the external benchmark input for internal
clock modules or the clock benchmark for external devices. The port rate/frequency is
2.048 Mbps or 2.048 MHz. You can manually configure the ports through the DIP switch
on the clock module.
zCF port
The SRP1N7 module provides a CF port to accommodate a standard CF card, where
you can save logging information, host version information, alarming and other
diagnostic information and conveniently upgrade software online.
The SRP1N7 module has 12 pairs of LEDs to indicate the operating status of 12 LPU
modules. Fore more details about the LEDs, see
zStatus LEDs for the SRP1N7 module
Table 1-13.
You can learn the operating status of SRP1N7 module by reading the SFS, ACT, ALM
and RUN LEDs on it. Fore more details about the LEDs, see
Table 1-14.
V. SRP1M1 module
1) Specifications
The S9502 uses SRP1M1 modules. The following table summarizes the module
specifications.
Table 1-39 SRP1M1 module specifications
Attribute SRP1M1
CPU MPC755
BootROM 512 KB
SDRAM 512 MB (expandable to 1 GB)
Dimensions (W x D)
366.7 × 340 mm (14.4 × 13.4 in)
One Console port, for local configuration management
One AUX port, for remote dialup configuration
management
One 10Base-T/100Base-TX port, for software upgrade
and network management
Port
One RS232/485 port, for connecting the external PoE
power frame when using PoE function; The RS485 port
supports the cascade connection of PoE power frame and
NEPS3500-AB when using PoE function and
NEPS3500-AB.
One hot-swappable CF port
Max power
consumption
60 W
2) Panel
The SRP1M1 module provides a CF port and CF LED (CFS), a 10Base-T/100Base-TX
port, RS232/485 port, Console port and AUX port, a RESET button, LPU status LEDs,
and SRP1M1 status LEDs (SFS, ACT, ALM, and RUN), as shown in
Table 2-3 Optical interface modules available for the XP2 module
SFP module
10GBase-SR
/SW-XFP
10GBase-LR/
LW-XFP
10GBase-ER
/EW-XFP
Central
wavelength
850 nm
1310 nm
1550 nm
Connector
LC
Matching
cable
26 m (85.3 ft) for the
62.5 µm MMF w/
50/125 µm
multimode
optical fiber
cable
9/125 µm
single mode
optical fiber
cable
9/125 µm
single mode
optical fiber
cable
160MHz*km cable;
82 m (269.0 ft) for
the 50 µm MMF w/
500MHz*km cable;
300 m (984.3 ft) for
the 50 µm MMF w/
2000MHz*km cable
10 km (6 mi)
40 km (25 mi)
Transmission
distance
2.3 XP4 Module
2.3.1 Specifications
The XP4 module provides four 10GE XFP/LC optical ports (1:2 convergence).
Table 2-4 XP4 module specifications
CPU MPC8245
Boot ROM 512 KB
SDRAM 128 MB/256MB
Dimensions (L × W) 366.7 × 340 mm (14.4 × 13.4 in.)
Number of ports Four
Max. power consumption (with bottom plate) 160 W
Connector XFP/LC
Rate 10 Gbps
The XP4 module has two LEDs for each optical port on its panel.
Table 2-5 1000 Mbps optical port LEDs on the XP4 module
LED Status
LINK
OFF No link is present.
Green A link is present.
OFF No packets are transmitted/received on the port.
ACT
Orange blinking Packets are being transmitted/received on the port.
2.3.3 Matching Cable
The XP4 module provides four 10 Gbps XFP optical port s. For more det ail s about XFP
optical modules, see
2.4 XK1 Module
2.4.1 Specifications
The XK1 module provides one 10GE XENPAK/SC optical/electrical port.
Table 2-6 XK1 module specifications
Table 2-3.
Attribute XK1
CPU MPC8245
Boot ROM 512 KB
SDRAM 128 MB/256 MB
Dimensions (L × W) 366.7 × 340 mm(14.4 × 13.4 in.)
Max. power consumption 45 W
Number of ports One
Connector XENPAK/SC
Rate 10 Gbps
CPU MPC8245
Boot ROM 512 KB
SDRAM 128 MB/256MB
Dimensions (L × W) 366.7 × 340 mm (14.4 × 13.4 in.)
Max. power consumption 100 W
Number of ports 24
Connector SFP/LC
Rate 1000 Mbps
OFF No link is present.
Green A link is present.
OFF No packets are transmitted/received on the port.
Orange blinkingPackets are being transmitted/received on the port.
Table 2-11
Attribute FP20
CPU MPC8245
Boot ROM 512 KB
SDRAM 128 MB/256 MB
Dimensions (L × W) 366.7 × 340 mm (14.4 × 13.4 in.)
Max. power consumption 50W
Port 20
Connector SFP/LC
Rate 100 Mbps full duplex
The F32G module has one LED for each 100 Mbps port on its panel.
OFF No link is present.
Green A link is present.
OFF No packets are transmitted/received on the port.
Orange blinkingPackets are being transmitted/received on the port.
The F32G can provide four 1000 Mbps SFP optical ports. For more details about the
SFP modules, see
The 32 × 10/100 Mbps electrical ports on the F32G module use RJ-45 connectors and
category-5 twisted pair cables which allow the transmission distance of 100 m (328 ft).
PIN #8
PIN #1
Figure 2-8 RJ-45 connector
OFF No link is present on the port.
Blinking Packets are being transmitted/received on the port.
Table 2-11.
Table 2-20 Pin assignment of the RJ-45 MDI connector
The GT24 module has one LEDs for each port on its panel.
Table 2-23 Port LEDs on the GT24 module
LED Status
ON No link is present.
LINK/ACT
2.9.3 Matching Cable
The ports on the GT24 module uses RJ-45 connectors (see Table 2-24) and category-5
twisted pair cables which allow the transmission distance of 10 0 m (328 ft).
PIN #8
PIN #1
Figure 2-10 RJ-45 connector
Table 2-24 Pin assignment of the RJ-45 GE connector
OFF A link is present.
Blinking Packets are being transmitted/received on the port.
Pin No.
10Base-T/100Base-T/1000Base-TX
Signal Function
1 MX_0+ Transmit and receive data.
2 MX_0- Transmit and receive data.
3 MX_1+ Transmit and receive data.
4 MX_2+ Transmit and receive data.
5 MX_2- Transmit and receive data.
6 MX_1- Transmit and receive data.
OFF No packets are transmitted/received on the port.
Orange blinkingPackets are being transmitted/received on the port.
Table 2-33 POS port LEDs on the P4G8 module
LED Status
ALM
ACT
2.12.3 Matching Cable
The GP24 module provides eight 1000 Mbps SFP optical port s. Fo r more det ails about
SFP optical modules, see
The GP24 module also provides four OC-3c-POS optical ports. For more details about
100 Mbps SFP optical modules (to provide OC-3c-POS optical ports), see
OFF The link is normal.
ON No link is present or the link is faulty.
OFF No packets are transmitted/received on the port.
ON Packets are being transmitted/received on the port.
Table 2-11.
Table 2-16.
2.13 SP4 Module
2.13.1 Specifications
The SP4 module provides four OC-48c-POS optical ports.
Table 2-34 SP4 module specifications
CPU MPC8245
BootROM 512 KB
SDRAM 256 MB
Dimensions (L × W) 366.7 × 340 mm (14.4 × 13.4 in)
Max. power consumption 97 W
Number of ports Four
Connector SFP/LC
Rate 2.5 Gbps
The UP1 module provides one OC-192c XFP/LC POS optical ports.
Table 2-37 UP1 module specifications
Attribute UP1
CPU MPC8245
Boot ROM 512 KB
SDRAM 256 MB
Dimensions (L × W) 366.7 × 340 mm (14.4 × 13.4 in)
Max. power consumption 92 W
Number of ports One
Connector XFP/LC
Rate 10 Gbps
2.14.2 Panel and LEDs
Figure 2-16 UP1 module panel
The UP1 module has two LEDs for each port on its panel.
Table 2-38 POS port LEDs
LED Status
OFF The link is normal.
ALM
ON No link is present or the link is faulty.
OFF No packets are transmitted/received on the port.
ACT
ON Packets are being transmitted/received on the port.
2.14.3 Matching Cable
The UP1 module provides one OC-192c XFP/LC POS optical port. For more details
about XFP optical modules (to provide 10 Gbps POS optical ports), see
Table 2-3.
2-20
Installation Manual
H3C S9500 Series Routing Switches Table of Contents
The S9500 series shall be installed indoors in a fixed place.
4.1 Confirming Installation Preparation
z Make sure that you have read Chapter 3 Installation Preparation carefully.
z All requirements mentioned in Chapter 3 Installation Preparation have been met.
Step 6: Align the mounting ears with the square holes in the posts of the cabinet, and
fasten the screws in the holes to fix the switch in the cabinet.
4.4 Mounting the Switch in B68 Cabinet
When purchasing the S9500 series, you may also select a B68 Series Cabinet as
needed. There are two types of B68 cabinets available for the S9500 series:
z B68-18 model: 1.8 m B68 cabinet (600 x 800 x 1800 mm, or 23.6 x 31.5 x 70.9 in.)
z B68-22 model: 2.2 m B68 cabinet (600 x 800 x 2200 mm or 23.6 x 31.5 x 86.7 in.)
Note:
Except for the height, B68-18 and B68-22 cabinets have the same requirements in
space planning, cabinet positioning, and fixing.
4.4.1 Installing B68 Cabinet
For the procedure of installing a B68 cabinet, refer to Appendix B.
4.4.2 Remodeling B68 Cabinet
For details, refer to the B68 Cabinet Remodel Introduction shipped with the device.
4.5 Connecting PGND Wire and Power Cord
4.5.1 Connecting PGND Wire
Caution:
For the safety of operators and equipment, the switch must be well grounded. The
resistance reading between switch chassis and the ground must be less than 1 ohm.
I. Common grounding environment
Step 1: Remove the screw from the grou nding hole in the switch chassis.
Step 2: Wear the connector of the PGND wire accompanied with the switch on the
grounding screw.
Step 3: Insert the grou nding screw into the grounding hole and screw it down.
Step 4: Connect the other end of the ground wire to the ground bar of the switch.
Note:
Generally, the cabinets installed in equipment rooms are equipped with ground bar. In
this case, you can connect the PGND wire of the switch to the ground bar for it.
II. Other grounding environment
Following are some methods for grounding the switch in different grounding
environments that you are likely to encounter when installing the switch at different
places.
Note:
Rather than specifying the switch model or showing the actual location of the switch
power input or grounding screw, the following figures are primarily intended for
illustrating the switch grounding, either via grounding screw or power input, in specific
grounding environments.
zIf a ground bar is available, attach one end of the yellow-green PGND wire of the
switch to a grounding bolt of the ground bar and faste n the captive nuts. Note th at
the fire main and lightning rod of a building are not suitable for grounding the
switch. The PGND wire of the switch should be connected to the grounding device
in the equipment room. (For the S9500 series, the grounding screw is on the rear
panel. Connect it as illustrated in
(5)
(5)
(5)
(5)
(5)
(5)
(1)
(1)
(1)
(1)
(1)
(1)
(2)
(2)
(2)
(2)
(2)
(2)
(3)
(3)
(3)
(3)
(3)
(3)
(4)
(4)
(4)
(4)
(4)
(4)
(1) Air filter (2) Grounding screw
(3) PGND wire (4) Ground b ar of the equipment room
(5) Rear panel of the switch
Figure 4-6).
Figure 4-6 Ground the switch when ground bar is available
zIf there is no ground bar but earth nearby and the grounding body is allowed to be
buried, you can simply hammer an angle iron or steel pipe no shorter than 0.5 m
into the earth. In this case, the yellow-green PGND wire should be welded with the
angle iron (steel pipe) and the joint should be processed against eroding. (F or the
S9500 series, the grounding screw is on the rear panel. Connect it as illustrated in
Figure 4-7).
(6)
(6)
(6)
(1)
(1)
(1)
(2)
(2)
(2)
(3)
(3)
(3)
(4)
(4)
(4)
(5)
(5)
(5)
(1) Air filter (2) Grounding screw
(3) PGND wire (4) Ground b ar of the equipment room
(5) Angle steel (6) Rear panel of the switch
Figure 4-7 Ground the switch when allowed to bury grounding body nearby
zIf both ground bar and the conditions for burying the grounding body are not
available, an AC-powered Ethernet switch can be grounded using the PE wire of
the AC power supply. In this case, make sure that the PE wire of the AC power
supply has been well grounded at the power distribution room or AC power supply
transformer side.
(7)
(7)
(6)
(6)
(1) (2)(5)
(1) (2)(5)
(3)(4)
(3)(4)
(1) Live line (2) Neutral line
(3) PE line (4) 3-core AC i
(5) Transforme(6) AC power i
(7) Front panel
zIf both ground bar and the conditions for burying the grounding body are not
available, a -48V DC-powered Ethernet switch can be grounded using the RTN
wire of the DC power supply. In this case, make sure that the RTN wire has been
well grounded at the DC egress of the DC power cabinet.
(11)
(11)
(12)
(12)
(1)
(1)
(9)
(9)
(10)
(2)
(2)
(4)
(4)
(6)
(6)
(3)
(3)
(5)
(5)
(8)
(8)
(13)
(13)
(10)
(7)
(7)
(1) AC/DC power cabinet (2) -48V line bank
(3) -48V output (4) RTN line bank
(5) RTN output (6) PGND line bank
(7) Earth ground (8) DC power input
(9) Grounding screw (10) Rear p el of the switch
(11) Front panel of the swit(12) Air filter
ch
(13) PGND wire
Fcabinet via PGND o
igure 4-9 Ground the f the power cabinet
4.5.2 Conn
ecting AC Power Cord
Caution:
zFor lightning protection, the AC power should be led through an external lightning
device into the switch.
zMake sure the power switch on the PSU is at OFF position before connecting the
power cord.
an
On the front panel of AC PSU, there is a connector-retention clamp.
Conn
Step 1: Pull up the clamp at the left of the PSU front panel.
e
St p 2: Insert one end of the AC power cord accompanied with the switch into the
soc
ket on the PSU unit.
e
St p 3: Pull down the clamp to hold the power connecter.
Stee other end of the power cord into the external power socket for the
p 4: Insert th
ch.
swit
(1) connector-retention clamp (2) Input LED
(3) Outp
ut LED (4) Fail LED
Figure 4-10 Connect AC power cord for the S9502
Connect AC power cord for the S9505/S9508/S9512:
Step 1: Pull the clamp at the left of the PSU front panel to the righ
Step 2: Insert one end of the AC power cord accompanied wit
socket on the PSU unit.
Step 3: Pull the clamp to the left to hold the power connector.
Power OFF all the related parts of the switch before connecting the DC power cord.
In the connection of DC power cord, a connector bar will be used, and the power cord
will be tightened into the bar using screws for the sake of reliability.
onnect DC power cord for the S9502:
C
Step 1: Loosen the mounting nuts of the connectors on the DC PSU using the M6
socket wrench.
Step 2: Insert the -48V OT terminal
(with a blue wire) of the DC power cord
accompanied with the switch into the “-48V” connector on the PSU and fasten the
mounting nut. In
sert the peer end of the OT terminal into the “-48V” connector on the
external power supply.
Step 3: Insert one end of th e GND OT terminal (with a black wire) of the DC power cord
accompanied with the switch into the “RTN” connector on the PSU and fasten the
mounting nut. Insert the
peer end of the OT terminal into the “RTN” connector on the
external power supply.
Step 4: Insert one end of the PGND OT terminal (with a yellow-green wire) of the DC
power cord accompanied with the switch into the “PGND” connector on the PSU and
fasten the mounting nut.
Insert the peer end of the OT terminal to the ground bar for the
switch.
(1) -48V (2) RTN
(3) PGND (4) Input LED
(5) Output LED
(7) Connector block
Sounting nuts of the coectors on the DC PSU using the socket
tep 1: Loosen the mnn
wrench.
Step 2: Insert the -48V terminal (with a blue wire) of the DC power cord of the switch
into the “-48V” connector on the PSU and fasten the mounting nut. In
sert the other end
of the OT terminal into the “-48V” connector on the external power supply.
Step 3: In
sert one end of the GND OT terminal (with a black wire) of the DC powe r cord
into the “RTN” connector on the PSU, and fasten the mounting nut. Connect the other
end of the OT terminal to the RTN connector on the external power supply.
Step 4: Insert one end of the PGND OT terminal (with a yellow-green wire
) of the DC
power cord into the “PGND” connector on the PSU, and fasten the mounting nut.
Connect the other end of the OT terminal to the ground bar for the switch.
(1) Input LED (2) Output LED
(4) PGND (5) RTN
(3) Fail LED
(6) -48V
Figure 4-14 Connect DC power cord for the S9505
(7)
(7)
(6)
(6)
(1) Input LED (2) Output LED (3) Fa
(4) Power switch (5) PGND (6) RT
(7) -48V
Figure 4-15 Connect DC power cord for the S9508/S9512
z -48V: -48 V
z RTN: -48 V working ground
z PGND: proteround
DC power supply
ction g
4.5.4 Connecting PoE Power Cord
Th can use PSE4500-A external PoE power supply,
e S9505/S9508/S9512 switch
ch is connected to the switch
whi through the PoE entry module.
The S9502 switch can use
connected to the switch through the PoE filter at the rear of the chassis, for the switch to
re
motely supply power to the connected PD devices.
Note:
This section only focuses on the cable connection between the external PoE power
supply and the S9500 series switch. For the installation of the external PoE power
supply, see the manual shipped with the power supply.
PSE2500-A1 external PoE power supply, which is
chassis I. Grounding PoE
You must g
round the PoE chassis before connecting the PoE power cord to it. Follow
these steps:
Connect the 6 AWG cable of the wiring terminal (with M6 hole) to the grou nding screw
on the rear panel of the switch, as shown in Figure 4-16.
C
onnect the other end of the cable to the grounding bar or other grounding terminals.
Figure 4-20 Top view of the power distribution box
Caution:
zThe power distribution box takes AC high voltage. Do not operate it before brea
its power.
zMake sure the power cord ports are covered with protection tube such that no wire
tailpiece is exposed at any joint.
IIer cords to the power distribution box
. Connect pow
Use three
cabin
cross-se
sp cifications in different countries). Connect the power cords according to the
e
following relations
zistribution box — Live wire L in the cabinet power
cables to connect the client power distribution box to the terminal block of the
et power d
istribution box. You are recommended to use the cables with 16 mm
ctional area (the colors of the cables differ depending on the cable
:
Live wire L in the client power d
distribution box
z
Neutral wire N in the client power distribution box — Neutral wire N in the cabinet
power distribution box
zEarth wire G in the client power distribution box — Ea
rth wire PE in the cabinet
power distribution box
king
2
Use 3.5 m (11.5 ft) long cables to connect the cabinet power distribution box to the
system power supply and PoE power supply. The three wires of each cable should be
respectively connected to the ports L, N and PE of the power distribution box. Make
sure the protection
con ection. You should connect power cord 1 to L1, N1 and PE1, power cord 2 to L2,
n
and PE2, and s
N2 o on. The number of power cords depends on the cabinet
tubes are used and no wire tailpiece is exposed during the
configuration. Note that you should connect the brown wire to L (live wire), the blue wire
(neutral wire), and yello
to Nw-green wire to PE (earth wire).
After finishing the connection of the cables, bind these cables in order with cable strap,
wire them along the right side of the cabinet down, and connect them to the input ports
As illustrated in Figure 4-22, the two leftmost input terminal blocks are DC input
terminal blocks. Next to them are two air switches, each of which has a through-current
capacity of 63A. On the rightmost side are 9 terminal blocks, 6 of which are BGND
terminal blocks and the rest are PGND terminal blocks.
Diagram for connecting terminal blocks
II.
To DC
To DC Power
To DC
To DC Power
To DC
To DC Power
To DC
To DC Power
GNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGNDGNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGNDGNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGND
GNDPGND
B
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
-48V1-48
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
V2
To -48V DC (-)
To -48V DC (-)
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
To -48V DC (+)
To -48V DC (+)
To -48V DC (+)
To -48V DC (+)
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
B
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
G
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
N
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
D
Figure 4-23 Diagram for connecting DC input terminal blocks
se of bodily injuries, do not touch any naked wire, terminal or other parts of the
prod labels.
uct with hazardous voltage
Step 1: Wear the ESD-preventive wrist strap, making sure that it makes good skin
cont
act; take the fan tray out from the packing bag.
Stepection (just check the direction of instructional words,
2: Hold the fan tray in right dir
and if you insert it upside down, the pl
inside the chassis), with one han
ejector levers on the fan tray with both hands and pull them outward. Align the fan tray
with the guides in the chassis and slide it gently into the slot until its plug touches the
chassis socket.
ug of the fan tray cannot touch the right socket
d on its handle and the other hand at its bottom the
4.10 Inst
Step 3: Fasten the mounting screws on the p
Note:
The above installation steps are just for replacing your fan tray, since the fan tray is
delivered together with the chassis and no initial insta
anel of the fan tray with a screw driver.
llation is required.
alling LPU
The LPUs of the S9500 series are hot-swappable.
Step 1: W ear the ESD-preventive wrist strip, makin
Take the LPU out of the packing bag.
Step 2: Unscrew the mounting screws holding the blank filler p
you plan to install the LPU, and remove the pa
Step 3: Hold the ejector levers on the fan tray with both hands and pull them outward.
Align the LPU with the guides in the chas
positioning pin of the LPU touches the hole in the chassis.
sis and slide it gently into the slot until the
g sure that you have grounded it well.
anel in the slot where
nel from the slot.
Step 4: Pull the ejector le
Step 5: Fix the LPU by fastening
vers inward, locking the positioning pin into the hole.
the mounting screws on the LPU with a screw driver.
Put the removed blank filler panel away for future use.
For the S9500 series, the service processor card can be installed in the LPU slot in the
same way as installing the LPU board.
4.11 Co
4.11.1 Co
I.
nnecting Interface Cables
nnecting Console Cable
Introduction
Console cable is an 8-core shielded cable. At one end of the cable is a crimped RJ-45
connector that is to be plugged into the console port of the switch. At the other end of
the cable is a DB
on the console terminal. The following figure illustrates the console cable.
Enlarged A side
Pos. 25
-9 (female) connector. You can plug it into the 9-pin (male) serial port
1) Plug the DB-9 female connector of the console cable into the serial port of the
PC/terminal where the switch is to be configured.
2) Connect the RJ-45 connector of the console cable to the console port of the
switch.
Note:
The PC serial port is not hot-swappable, so you are not allowed to insert or remov
console cable into or from the PC serial port.
When connecting the console cable, first connect the DB9 end to the PC serial p o
then the RJ45 end to the console port of the switch. And removing the console ca
just in inverse order.
When removing the console cable, first remove the RJ-45 end and then the DB9
4.11.2 Connectin
steps to connect the console cable, when configuring the switch on
e the
rt and
ble is
end.
g AUX Cable
You need an AUX cable when configuring the S9500 series with the remote m
dial-up approach.
odem
I. Introduction
AUX cable is an 8-core shielded cable. At one end of the cable is an RS-232-compliant
RJ-45 cr that can be into the AUX port of the switch. At end is
DB-9 (male) connectorcan plug it into) port of the modem. For
detail, refer to Figure 4-28 and Table 4-2.
z When selecting a fiber network facility, make sure that the type of the connector and
the fiber match the adopted optical port.
zBefore connecting the fiber, make sure that the receive-end optical power does not
exceed the upper threshold of th
e receiving optical power. Excessive receiving
optical power is very likely to burn the optical module.
Fiber connectors are indispensable pa
communication system. Their application a
optical channels, which makes the optical syste
convenient and the transit dispatching of t
connectors, only LC connector will be intr
zLC fiber connector
ssive components in an optical fiber
llows the removable connection between
m debugging and maintenance more
he system more flexible. Among various fiber
oduced here.
Figure 4-30 LC connector
II
. Connecting fiber
Step 1: Plug one en
tep 2: Connect the other end of the fiber into the corresponding device.
S
d of the fiber into the SFP optical module of the S9500 series.
Caution:
When the optical interface has not been connected with a fiber connector or its
d
ustproof mesh is open, there might be some invisible radiation emitted from the optical
interface. So do not look into the optical interface directly.
Cover the optical interface if there is
no connector plugged in.
4.12 Cable Routing Recommendations
4.12.1 Freestanding Switch on Tabletop
For only selling an integrated chassis, you do not have to care about the cabling inside
or outside the cabinet. All the LPU cables are routed from the left side of the chassis
cabling channel), and the chassis power cords (AC/DC power cords) are
routed in the front of the chassis.
4.12.2 Cabin
et-Mounting Switch
If t
he switch is mounted in a 19-inch standard cabinet or B68-22 cabinet, the LPU
cabhassis and are routed up or
les are bound on the cabling rack at the lef t side of the c
down to pass through the chassis top or the raised floor depending on the available
e
quipment room condition (that is, the signal cables are routed into the chassis either
from the cabling rack on the chassis top or from the cabling trough under the floor) of
the exchange office. The power cords run along the left-front of the chassis and out of
the chassis either from the top or the raised floor depending on the equipment room
conditions (DC power distribution cabinet, lightning protection box, and terminal block,
etc.) of the exchange office.
4.13 Cable Management
4.13.1 Correct Labels
Before bundling the cables, you shoul
to the right position on the cables. For d
Appendix A Engineering Labels for Cables.
d fill in the labels for them correctly and stick them
etails, refer to the description of label usage in
4.13.2 Cable Management Requirements
Bundle and put the cables inside the cabinet in a straight and neat way. No
zThe bending radius of cable body cannot be less than twice of the cable diameter.
The bending radius of the cab
le cannot be less than 5 times of its diameter at the
place where it is led out of the connector;
zDifferent cables (power co
rd, signal cable, PGND wire, etc.) should be cabled and
bundled separately rather than together in the cabinet. If they are close to each
other, you can cable them in cross-shape. For parallel cabli ng, the space between
power cord and signal cable should be no less than 30 mm (1.2 in);
zThe cable binding rack and cabling ch annel in sid e an d out side the cabi net shoul d
be smooth and without sharp edges or tips;
zThe metal cable management hole should have a smooth and fully rounded
surface or wear a insulating bush;
zUse the right type of ties to bundle the cables. Do not bundle cables with joined
ties. The following types of ties are available currently: 100 × 2.5 mm (3.9 in × 0.1
in), 150 × 3.6 mm (5.9 × 0.1 in), 300
0.4 in), and 580 × 13 m
zCut the extra parts of th
angular tips
. See the following figure:
m (22.8 × 0.5 in);
e ties neatly after bundling the cables, leaving no sharp or
× 3.6 mm (11.8 × 0.1 in), 530 × 9 mm (20.9 ×
Figure 4-32 Cable bundling example II
zBundle the cables wherever cable bending cannot be avoided. Ho
ties cannot be placed inside the bending area in case of the likel
core break due to excessive stress. See the following figure.
The spare cables or excessive cable parts should be folded and bundled and
placed at a right place in the cabinet or on the cabling channel. A “right place”
refers to the place where the cables will n
ot affect the operation of the device or
impair the device, or be damaged;
zguides of any mobile components;
The power cords cannot be tied on the
zReserve some redundancy for the cables connectin
PGND wire of the door for example, to free the cables
mobile part should be installed in such a way that the extra cable segme
kept from contacting the heat source, sharp points or edges. Use hi
g to the mobile parts, the
from possible stress. Such a
nts will be
gh temperature
cables near the heat sources;
zFor the cable terminals fixed using screw threads, the screws or
securely fastened and prevented from loosing. See the followi
nuts should be
ng figure;
Flat Flat Spring
Flat Flat Spring
washer washer washer
washer washer washer
Nut
Nut
Figure 4-34 Cable fixing example
zWhen using a hard power cord, fix it near its terminal so as to free the terminal and
the cable from stress;
zDo not use tapping screws to fasten the connecting terminals;
4-31
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