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1 Hardware information and specifications of FSW5100
About H3C 5G extended pico stations
About hybrid copper-fiber cables
Hybrid copper-fiber cable specifications
Installing a hybrid copper-fiber cable
1 Hardware information and specifications of FSW5100
H3C FSW5100 Series Fiber Interface PicoCell Expansion Unit includes the following models:
Product series |
Product model |
Product code |
H3C FSW5100 series |
FSW5100 |
MC-FSW5100 |
FSW5100-GL |
MC-FSW5100-GL |
About H3C 5G extended pico stations
An H3C 5G extended pico station is an indoor distributed wireless access system, featuring simple architecture, ease of deployment, low maintenance, and deep multi-standard coverage. As shown in Figure1-1, an H3C extended pico station contains three parts:
· BBU—Baseband processing unit for the 5G extended pico station, providing device management, configuration management, performance monitoring, clock management, signaling processing, baseband resource management, and wireless resource management.
· FSW—Extension unit of the 5G extended pico station. It connects to the BBU or subordinate FSW through fiber and accesses the pRRU through a hybrid copper-fiber cable to provide power.
· pRRU—Radio frequency remote unit for the 5G extended pico station, providing the following features:
¡ The transmit channel receives digital signals from the BBU enhanced Common Public Radio Port (eCPRI) port, performs digital-to-analog conversion, frequency modulation, and amplification filtering, and ultimately transmits the RF signal through the antenna.
¡ The receive channel captures the RF signal from the antenna, amplifies and filters it, performs frequency modulation, converts it to a digital signal, and sends it back to the BBU through the eCPRI port.
The pRRU can be directly connected to the BBU or extended through the FSW to expand the cell scale.
Figure1-1 H3C 5G extended pico station
Hardware specifications
Product view
|
NOTE: The FSW5100 rear panel has no special identification, and the manual does not provide detailed information. |
Figure1-2 Front panel
1: Upstream eCPRI port LED |
2: Cascading eCPRI port LED |
3: Ethernet forwarding port LED |
4: Reserved port LED |
5: SFP+ port LED |
6: Management Ethernet port |
7: Grounding screw |
8: Power input socket |
9: Power cord fixed handle |
10: System status LED |
11: PoE power supply status LED |
12: Environmental alarm monitoring port |
13: PoE++ port |
14: SFP+ port |
15: Reserved port |
16: Ethernet forwarding port |
17: Cascading eCPRI port |
18: Upstream eCPRI port |
Figure1-3 Side panel
(1): Front mounting ear installation position |
(2): Rear mounting ear installation position |
Hardware specifications
Table1-1 Hardware specifications
Description |
|
Dimensions (W x D x H) |
440mm × 320mm × 43.6mm |
Port |
· 1 uplink eCPRI port · 1 cascading eCPRI port · 1 Ethernet forwarding port · 1 reserved port · 8 SFP+ ports · 8 PoE++ports · 1 management Ethernet port · 1 environmental alarm monitoring port |
Weight |
4.3kg |
IP rating |
IP20 |
Installation methods |
19-inch rack, wall-mounted |
Power consumption (typical power consumption) |
55W (excluding PoE output) |
Power |
220 VAC (176V to 264V) |
PoE++ port output power |
8*90W |
Noise power level |
High temperature less than 45dBA, room temperature less than 40dBA |
Storage temperature |
-40°C to +70°C |
Operating temperature |
-5°C to +55°C |
Relative humidity (non-condensing) |
5% RH to 95% RH |
Ports
|
NOTE: Reserved ports are not enabled. They are used for device function expansion in the future, and will not be further introduced in this document. |
Table1-2 Management Ethernet port attributes
Description |
|
Connector type |
RJ-45 |
Compliant standards |
- |
Speed |
100 Mbps |
Supported services |
Through this port, you can log in to the device's CLI port using Telnet and perform maintenance on the device. By default, the login method is: · IP address: 192.168.101.100/24 · Username: root · Password: root For the first login, you need to change the login password according to the system prompt. This port is only for device maintenance. To avoid mistakes, please do not execute or issue commands arbitrarily after logging into the device. |
Table1-3 Environmental alarm monitoring port properties
Item |
Description |
Connector type |
RJ-45 |
Compliant standards |
- |
Speed |
- |
Supported services |
The device provides 1 environmental alarm monitoring port, which can be connected to a maximum of 4 dry contacts via an external RJ-45 shielded twisted pair Ethernet cable. The connection rules between the dry contacts and the RJ-45 cable are as follows: · Each dry contact is connected to the RJ-45 connector with 8 bare wires, 2 of which are twisted. The wire sequence 1 and 2 correspond to dry contact 1, and 3 and 6 correspond to dry contact 2, and 4 and 5 correspond to dry contact 3, and 7 and 8 correspond to dry contact 4. · When a dry contact is connected to 2 bare wires, there is no specific sequence required. |
Table1-4 Upper eCPRI port and cascading eCPRI port attributes
Item |
Description |
Connector type |
SFP28 optical port |
Compliant standards |
25GE optical port |
Speed |
25Gbps |
Supported services |
· Uplink eCPRI port is used to connect to the uplink BBU or uplink FSW · Cascading eCPRI port is used to connect to the next FSW5100 device, realizing the expansion of device functions. When chaining the network, FSW5100 supports a maximum of 2 cascading levels |
Table1-5 Upper eCPRI Port and Cascading eCPRI Port Optical Transceiver Module Optional Selection Table
Module Type |
Product code |
Center Wavelength |
Port Specifications (dBm) |
Connector type |
Maximum Transmission Distance |
|
Output Optical Power |
Receive (Rx) Optical Power |
|||||
SFP+ 10G Optical Transceiver Module |
SFP-XG-LX-SM1310-D |
1310nm |
-8.2 to +0.5 |
-14.4 to +0.5 |
LC |
10km |
SFP-XG-CPRI-IR-SM1310 |
1310nm |
-8.2 to 0.5 |
-14.4 to 0.5 |
1.4km |
||
SFP-XG-CPRI-LR-SM1310 |
1310nm |
-8.2 to 0.5 |
-14.4 to 0.5 |
10km |
||
SFP28 25G Optical Transceiver Module |
SFP-25G-LR-SM1310 |
1310nm |
-7 to +2 |
-13.3 to +2 |
LC |
10km |
Table1-6 Ethernet forwarding port attributes
Item |
Description |
Connector type |
SFP+ optical port |
Compliant standards |
10GE optical port |
Speed |
10Gbps |
Supported services |
Ethernet forwarding port is used to connect Ethernet forwarding devices, providing data feedback channels for AP, short reach IoT, UWB, Bluetooth, and other devices |
Table1-7 Ethernet forwarding port optical transceiver module selection table
Product code |
Center Wavelength |
Port Specification (dBm) |
Connector type |
Maximum Transmission Distance |
||
Output Optical Power |
Receive (Rx) Optical Power |
|||||
SFP+ 10G Optical Transceiver Module |
SFP-XG-LX-SM1310-D |
1310nm |
-8.2 to +0.5 |
-14.4 to +0.5 |
LC |
10km |
SFP-XG-CPRI-IR-SM1310 |
1310nm |
-8.2 to 0.5 |
-14.4 to 0.5 |
1.4km |
||
SFP-XG-CPRI-LR-SM1310 |
1310nm |
-8.2 to 0.5 |
-14.4 to 0.5 |
10km |
Item |
Description |
Connector type |
SFP+ optical port |
Compliant standards |
10GE optical port |
Speed |
10Gbps |
Supported services |
The device provides 8 SFP+ ports for connecting pRRUs to transmit eCPRI data. One FSW5100 device can connect up to 8 pRRUs. |
Table1-9 SFP+ Port Optical Transceiver Module Selection Table
Module Type |
Product code |
Center Wavelength |
Port Specifications (dBm) |
Connector type |
Maximum Transmission Distance |
|
Output Optical Power |
Receive (Rx) Optical Power |
|||||
SFP+ 10G Optical Transceiver Module |
SFP-XG-CPRI-IR-SM1310 |
1310nm |
-8.2 to 0.5 |
-14.4 to 0.5 |
LC |
1.4km |
Table1-10 Attribute of PoE++ port
Item |
Description |
Connector type |
RJ-45 |
Compliant standards |
PSE |
Speed |
- |
Supported services |
Connect pRRU to provide power for pRRU. The PoE++ port output power is 90W |
LEDs
|
NOTE: The reserved port LED is not enabled. It is used for device function expansion in the future, and this document will not cover it further. |
Table1-11 System status LED
LED status |
Description |
|
SYS |
Steady green |
Software starting |
Flashing green (4 Hz) |
Device loading software |
|
Flashing green (0.5 Hz) |
Device running normally |
|
Steady red |
Device abnormalities include but are not limited to startup abnormalities, power alarms, and fan alarms System clock abnormalities include but are not limited to system clock loss of lock |
|
Off |
Device not powered on |
Table1-12 PoE power supply Status LED
LED |
LED status |
Description |
PoE |
Steady green |
There is a PoE++ port for power supply |
Flashing yellow |
There is an abnormal power supply or the load exceeds the carrying range |
|
Off |
No PoE++ port for external power supply |
Table1-13 Upper eCPRI port, cascading eCPRI port, Ethernet forwarding port LED
LED status |
Description |
Steady green |
Port link connected but not receiving or transmitting data |
Flashing green (8Hz) |
Port is receiving or transmitting data |
Steady yellow |
Optical transceiver module on the port is receiving/transmitting abnormally (module in place) |
Off |
Port link not connected |
LED status |
Description |
Steady green |
Port link connected, but no data is being received or transmitted |
Flashing green (8 Hz) |
Port is currently receiving or transmitting data |
Steady yellow |
Optical transceiver module plugged into port is experiencing abnormal reception and transmission (module in place) |
Off |
Port link not connected |
Hybrid copper-fiber cables
About hybrid copper-fiber cables
Hybrid copper-fiber cable is a type of fiber cable and electrical cable twisted together. It adds insulated conductors to the fiber cable structure, integrating fiber cable and power transmission copper wire, enabling longer transmission distances and suitable for various types of business.
Figure1-4 Structure of a hybrid copper-fiber cable
Hybrid copper-fiber cable specifications
When using hybrid copper-fiber cable, you need to purchase bare wire, RJ-45 power connector, and LC type Fiber connector for on-site wiring. Detailed information about the bare wire and connectors is shown in Table1-15.
Table1-15 Bare wire and connector
Description |
Fiber/Connector type |
Product code |
|
RJ-45 Type Power Connector |
Network Port Connector - Single Row - 1 Port - 2 PIN - Plug - 4mm - UPOE - Non-Integrated Transformer |
RJ-45 |
1408A047 |
Bare Wire |
Symmetrical Twisted Pair Cable - Hybrid Copper-Fiber Cable - 4 Cores - 100 Meters |
Single-mode, G.657A2 |
HYBRID CABLE-100 |
Bare Wire |
Symmetrical Twisted Pair Cable - Hybrid Copper-Fiber Cable - 4 Cores - 200 Meters |
Single-mode, G.657A2 |
HYBRID CABLE-200 |
Bare Wire |
Symmetrical Twisted Pair Cable - Hybrid Copper-Fiber Cable - 4 Cores - 500 Meters |
Single-mode, G.657A2 |
HYBRID CABLE-500 |
LC Type Fiber Connector |
Fiber Connector - LC/PC - LC/PC - Single-Mode - 2mm - 3m |
LC |
OP-LC/PC-LC/PC-3-S |
Installing a hybrid copper-fiber cable
IMPORTANT: · Assembly of hybrid copper-fiber cable must be carried out by personnel with experience in optical communication construction, and equipped with professional fiber production and testing tools. · When using the optical transceiver module with Product code SFP-XG-CPRI-IR-SM1310, please ensure that the optical link attenuation between FSW and pRRU is less than 6dB. · Do not damage the power cord and fiber core. · Do not forcefully bend or strip the outer jacket of the hybrid copper-fiber cable. · In order to facilitate on-site cable hiding, the stripping length can be appropriately increased. |
Removing the outer jacket of the hybrid copper-fiber cable
Peel off the outer jacket at both ends of the hybrid copper-fiber cable, with a length of 50cm. To facilitate the peeling of the outer jacket and prevent accidental fiber breakage during peeling, it is recommended to peel in 2-3 segments.
Figure1-5 Removing the outer jacket
Assembling LC-type Fiber connectors
1. Use the butterfly Fiber stripper to strip the Fiber sheath, with a stripping length of 5cm.
Figure1-6 Removing the fiber sheath
2. Install the Fiber core wire into the LC type Fiber connector through cold or fusion splicing. The fiber length can be used as a reference length for cold splicing. If using fusion splicing to assemble the LC type Fiber connector, please adjust it according to the length of the fusion-spliced pigtail and the on-site environment.
3. Connect the LC-type fiber connector.
4. Test the assembled Fiber to ensure it is functioning properly.
Assembling the RJ-45 type power connector
1. Cut the power cord at the rear of the LC type Fiber connector, with a length of less than 8mm, as shown in Figure1-7.
2. As shown in Figure1-8, connect the power cord to the RJ-45 power connector, the specific steps are as follows:
a. Peel off the insulation skin of the cable outside the power cord core wire, with a peel length of 5mm.
b. Insert the two power cord cores into the bottom of the power connector cable access hole, ensuring that the copper wire threads are not bent or exposed. Note, refer to the positive (A) and negative (B) markings on the connector, and ensure that the positive and negative ends of the same power cord core are connected consistently.
c. Tighten the connection with a screwdriver to prevent the power cord from coming loose.
Figure1-8 Connect the RJ-45 type power connector
3. Pull the power cord firmly outward. If the power connector does not come off, the power cord is connected properly.
Figure1-9 Test the RJ-45 power connector
Cooling system
IMPORTANT: In order to ensure good ventilation: · It is recommended to leave sufficient space (recommended greater than 60mm) at the air intake vent and ventilation port of the device to facilitate heat dissipation. · Acknowledge the installation site has a good ventilation and heat dissipation system. |
The device consists of a set of efficient ventilation and heat dissipation system composed of body ventilation holes and detachable fan modules, which can ensure that the heat generated by the device can be discharged in a timely manner, improving the stability of device use. The device cooling process is as shown in Figure1-11. When installing the device, please plan the placement of the device in combination with the ventilation design of the environment.
As shown in Figure1-10, when installing devices, please consider the ventilation design of the environment to plan the placement of the devices.
Figure1-10 Device heat dissipation process
Acronyms
Acronym |
Full name |
1PPS |
1PulsePerSecond |
AC |
Alternating Current |
BBU |
Baseband Unit |
DC |
Direct Current |
eCPRI |
enhanced Common Public Radio Port |
FSW |
Front Haul Switch |
GNSS |
Global Navigation Satellite System |
LTE |
Long Term Evolution |
MMF |
Multi-Mode Fiber |
NR |
New Radio Access |
pRRU |
Pico RRU |
RRU |
Remote Radio Unit |
SFP |
Small Form-factor Pluggable |
SMF |
Single Mode Fiber |
TOD |
Time of Day |