Transcript 中兴Backhaul解决方案

Railway Communication System
[RCS]
International Convention Modern Telecom System for Safety
& Efficient Train Management
Ashwani Kumar
Director-Wireline Technical Sales
[email protected]
April 27-28 2012
Agenda
 Requirements Analysis for RCS
 RCS Solution
 Successful Case Studies
 ZTE Overview
Overall architecture of Railway Communications System
[RCS]
Overall structure of Railway system
Regional
Headquarter
Division
Headquarter
...
Division
Headquarter
...
Station/ Station/
Section Section
Station/
Section
A typical railway system has a three-level structure of
the Regional HQ, Divisions and stations/Sections
●
Regional HQ is responsible for planning, management
and Implementation of the railway unified
management, Delivery and Control system
●
Divisions have jurisdiction of their respective stations
and sections and their primary responsibilities are the
operations and maintenance of locomotives,
engineering/electrical services, rolling stock, power
supply for passenger transport and other auxiliary
duties.
●
Each station/section is under direct administration of
its Division
Division
Headquarter
Office
Office Office
●
Overall architecture of RCS
Office
Station/ Station/
Section Section
Office
Station/
Section
3
●
Three-level architecture- follows an administrative
hierarchy;; Aggregation/star network Topology.
●
The service delivery is divided into three layers
●
Access Layer- Below the Station/Section
●
Aggregation/Convergence Layer- Between the
Station/Section and Division
●
Backbone Layer-Between the Division and
Regional HQ
Classification of Railway ICT services
Intelligent railway information system
Main application systems
Daily operation and
management
Transport organization system
Passenger and freight transport
marketing systems
Office information
management system
Transport Delivery and Control
Passenger transport marketing
system
Transport resource
management system
Transport production and
organization
Freight transport marketing
system
Operation resource
management system
Train operation control
Decision support system
Running safety monitoring
Application System
Train Operation Delivery
Control System
System Description
For safe operation and Delivery of vehicles
The centralized traffic control system directly manages and dispatches trains.
Administrative
Department
Regional HQ /
Delivery office
For integrating the computer network to realize unified management of cargos in freight
vehicles/locomotives/trains/containers.
Information Center
For integrating the office resource network to realize office automation/networking.
Information Center
Ticketing and Reservation
system
The ticketing and reservation system for railway passenger transport completes the pre-sale
and sale management of tickets and covers all administration levels.
Passenger transport
department
Public Security
Management Information
System
Information management system specially intended for railway police
Public security
Department
Integrated Information
Network
The railway information infrastructure network mainly plays its role for the building of the intelligent information system, especially 4 primary application systems.
4
Overall architecture of railway ICT service network
Integrated
information
network
Public security
management
information system
Public security
management
information system
Integrated
information
network
Integrated
information
network
Ticketing and
reservation
system
Ticketing and
reservation
system
ASP
Delivery system
ASP
ASP
Public security
management
information system
Delivery
system
Ticketing
and
reservation
system
Delivery system
Station/Section
Regional Headquarter,
Control center
Office ……
Access and aggregation network Railway
Office
Backbone network
bureau
……
●
The railway ICT network has an information system architecture coordinated and alligned with the three-level administration system consisting
of the Regional HQ, Division and stations/sections;
●
The infrastructure network for the ICT system includes the access and aggregation network and backbone network, which bear the applications
provided by all information systems including four primary application systems;
●
The traffics contributed by all application systems are of the layered, distributed and aggregation type.
●
All application systems are independent of each other and the infrastructure network interconnects services at different levels which are
distributed in different areas.
5
Integrated information network framework
Gateway
Internet
Overall architecture of integrated
information network
Extranet
Headquarter:
Transport
Safety production network bureau
Control center
Intranet
●
Three-level network architectures are
interconnected by a data communication
network.
●
Sub service systems are independent of
each other.
●
Services are substantially IP-based
services and most of the interfaces are
Ethernet (10/100/1000M) interfaces.
●
Interconnection is completed by the
underlying PTN for the PE networking
for data communication network.
Firewall
PE device
Backbone Layer
Gateway
Gateway
Extranet
Extranet
Division
Intranet
Firewall
Safety production network
Intranet
Safety production network
PE device
Firewall
●
Access and aggregation Layer
Station/section
Intranet
Intranet
Firewall
Safety production
network
The integrated information network takes
a typical architecture in which various
LAN-based services are interconnected
via a wide area network.
Safety production ● The
network
data layer and physical layer need to
be considered for the sake of the service
bearing.
Safety production
network
Firewall
Feature requirements for service
delivery
Intranet
Firewall
6
●
The required bandwidth usually ranges
from 10 to 100M.
Network framework of Delivery system
Aggregation point
Station
Bearer
Headquarter:
Control center
Bearer
Railway Bureau A
Transport
Railway
Bureau B
Headquarter Delivery and Control center
Integrated
information
network
Railway bureau Delivery and
Control center
Station
common-level
Delivery
network
Common-level
Delivery network
Other
application
systems
Overall architecture of Delivery system
●
It has a three-level network architecture covering the entire line and
is divided into two levels: unified Delivery by the central office and
internal Delivery by railway bureaus. It is used for operation
scheduling and real-time tracking, adjustment and Control.
●
It consists of the office communications system, control signaling
system, data communication system and multi-media system. It
performs distributed control and centralized management.
Boundary commonlevel Delivery and
Control network
Service Transport requirements
●
Large number of access points, Ethernet and TDM service interfaces.
●
A wide bandwidth will be required when multimedia monitoring is
required.
7
Overall network architecture of Delivery system
Headquarter Delivery and Control center
Railway bureau
Delivery and
Control center
2M digital channel
● Usually
Station
Station
2M digital
channel
signaling services are
transmitted over 2M digital channel
and are centrally controlled and
managed
2M digital channel
● Delivery
services are distributed at
all sites and thus numerous service
access points exist, so a Large no. of
2M interfaces need to be provided.
Station common-level
Delivery network
(2M channel)
8
Architecture of ticketing and reservation system
Database
Application server
(ticketing system)
Headquarter
Central system
Database
Application server
(ticketing system)
Central system
at local level
Database
It is divided into three levels:
headquarter, local and station.
●
Station/sale point level system
provide the function of selling
tickets in real time.
Central
●
system
for other
regions
Application server
(ticketing system)
System at the
station level
Sale points
●
●
……
9
Local level system mainly
provide the function of
managing the passenger
transport services and
performing Delivery centering
on agents.
Central system mainly provide
the function of coordination
and management, data
analysis and networking of the
ticketing systems.
Networking architecture for ticketing and reservation services
Headquarter
Central system
Ticketing system
●
The application platforms at the
central, local and station levels
are connected by the data
communication networks.
●
Services are borne over the data
communication networks, which
are connected via the underlying
bearer, such as PTN.
●
Most of the service platform
interfaces are (10/100/1000M)
Ethernet interfaces.
●
The interfaces with the PE
devices are POS (STM-N) or
Ethernet (FE/GE) interfaces.
PE devices
Bearer
Central
system at the
local level
Ticketing
system
PE devices
Bearer
System at
the station
level
Ticketing system
PE
devices
Bearer
PE devices
Ticketing system
10
Networking architecture of public security management information
system
Headquarter
Public security
bureau
●
The networking includes the
networking of such services as
online office, video conferencing,
video monitoring, etc.
●
For video surveillance services,
mass storage needs to be provided.
●
The application platforms at the
central, local and station levels are
connected by the data
communication networks.
●
Monitoring and video conferencing
applications utilize wide bandwidths.
Depending upon difference in sites,
usually a bandwidth ranging from 50
to 150M is needed by each site for
the standard video resolution.
PE devices
Bearer network
Local public
security
departments
PE devices
Bearer network
Basic police
stations
PE
devices
Bearer network
PE
devices
11
Video Surveillance System (VSS)
12
System architecture of Public Services network
BSC
BSC RNC
RNC
Local
network1
…
Local
network 2
Local
network n
Local network X
BSC
BTS
BSC RNC
●
Among Public services, railway
coverage of wireless services is
the most popular
●
Services are networked for
different local network ranges
RNC
NodeB E1/STM-1
Eth
BTS
NodeB
●
●
Services are characterized by
backhaul depending upon their
home local network.
●
For 2G/3G wireless services,
usually the interfaces are of the
E1/STM-1 and FE/GE type.
Service Transport network
Access node
Access
node
E1
Eth
E1
E1
Eth
Eth
BTS NodeB
BTS NodeB
BTS NodeB
13
Separated from internal Network
Telecommunication System Structure
OCC
CCTV
Monitor
PA Console
SCADA/ATS/B
AS/FAS
Audio
（MPEG-X）
Clock
RS232/422/48
5/V35/V24/X.
21
Radio
10/100BASE-T
LAN
10/100BASE-T
E/M
AFC
RS422
Public
telephone
OA
Audio
Public
Telephone
V5
RS-422
PBX
10/100BASE-T
2B+D/30B+D
Dispatching
Telephone
2/4 line audio
Audio
Transmission
Network
（MPEGX）
Encoder
Clock
E/M
RS232/422/48
5/V35/V24/X.
21
Monitor
AFC
10/100BASE-T
SCADA/ATS/B
AS/FAS
10/100BASE-T
PA
Dispatcher
TRK
Dispatch
Console
CCTV
LAN
OA
Camera
14
Network layering of railway communication services
Integrated
information
network
Delivery
system
Ticketing and
reservation
system
Service
layer
Public security management
information system
BTS NodeB
ASP
Eth
PE
Data layer
(IP)
Eth
E1
PE
Civil system
Eth
E1
Eth
PE
Eth/POS
Eth/POS
TDM/optical
layer
Eth/POS
Transport
node
Physical
layer
(Optical fiber)
15
Summary of RCS requirements
Service
Assurance
High
reliability
 High service availability
 Professional systems are
isolated from each other
 Information interaction and
 Data integrity
sharing between service
 High network reliability
platforms is strictly controllable.
 The professional and civil
 High network survivability
systems are isolated from each
 Low-latency Delivery control
RCS
Requirement
other.
 Full-range networking
 Running safety
 Centralized Delivery
 Communication security
 Real-time data updating &
 Network security
 Information security
sharing
 High bandwidth video
surveillance
● All
Safety and
security
services are required to be delivered with high reliability, low latency, services isolation and high security
● Also
● To
High
efficiency
a high bandwidth is required for multimedia services
meet these requirements, following transport technologies are available for RCS
●
TDM based SDH/MSTP technology supporting multi-service transport
●
Packet based PTN technology supporting multi-service transport
16
Agenda
 Requirements Analysis for RCS
 RCS Solution
 Successful Case Studies
 ZTE Overview
End-to-end Solution
Terminal
Access
Transport Network
Service on cloud
Internet
PC/Tablet
xDSL MSAN
AP
Data Center
IP/MPLS/MPLS-TP
DWDM Backbone
STB
ISPA
ISPB
xPON
Internet
Mobile
CPE
L2/L3 Switch
Surveillance
Data card
M2M
Router
IPTV
Surveillance
HG
2G/3G/4G
GSM-R/GoTa
Video conference
SDH/WDM/PTN
Aggregation
Video conference
Contact Center
RFID Reader Microwave
RFID Smart Meter
Global Open Trunking Architecture-CDMA
Section/Station
Division/Regional HQ
18
Overall architecture of Transport Network for RCS
Station
Station
Office
Service
transport node
Station
Headquarter:
Transport bureau
Control center
Backbone
network
Service
transport
node
Service
transport node
Station
Office
Station
Legend:
Networking solution for service bearer network
●
It has a hierarchical aggregation architecture and it is recommended to build a ring network.
●
Medium and large sites and headquarter site make up the backbone network.
●
Access services at each small site are aggregated to the nearest medium and large sites and
access can be realized in a dual-node manner.
●
All branch sites and offices are connected as extended sites.
19
Medium and large
stations /
headquarter
Small station /
office
Analysis of BW requirements and traffic characteristics
Service
Characteristic
Bandwidth
Requirement
Service
Interface
Remarks
A wide bandwidth is required in
case of such video services as
video conferencing, etc.
64K interfaces or below may be
required.
Integrated
information
system
Aggregation type
N*10M
Ethernet,
POS
Delivery system
Distributed
aggregation type
<10M
E1,ethernet
Ticketing and
reservation system
Distributed
aggregation type
10M
Ethernet,
POS
Public security
management
information
system
Distributed
aggregation type
10~100M
Ethernet,
POS
A wide bandwidth is required for
video surveillance services.
Public
Communication
system
Regional
aggregation type
<10M / N*10M
Ethernet,
E1/STM-1
A wide bandwidth is required for
3G services.
Bandwidth requirement for service bearing: the bandwidth required for each site ranges from 50 to 200M
and is at least above 100M when video services are operated.
Networking of access network
●
As 100M services are connected for each site and
each access ring consists of 6 to 8 nodes, a
2.5/10G ring system is needed and planned service
bandwidth is above 500M
Networking of Aggregation network
●
10G devices are needed to connect all access rings.
●
Bandwidth utilization is related to the number of access
rings.
20
Requirements for Transport Network When Services Are
Transformed to All IP
Packet
Packet access
convergence
Core
scheduling
channel
Transport network
Access convergence
layer



Service
application



Core layer
Application
platform
Interface compatibility : taking the Ethernet interface as a core and compatible with the
TDM/ATM services
Service packetization : based on packet switching and transmission
QoS mechanism : monitoring services and providing end-to-end differentiated services
Synchronization : carrier-class clock/time synchronization scheme
Network availability : carrier-class OAM and protection
Low TCO: reducing CAPEX/OPEX
21
Limitation of MSTP Network
Rigid pipe
Low IP Suitability
MSTP
Rigid
Pipe
VC
Granule
Model of SDH/MSTP
Ethernet
Maximum
Bandwidth
Idle
Bandwidth
VC
Map
G
F
P
L2
Circuit-switched
core
Low scalability
Constrained convergence
aGW
STM-N
aGW
S1
aGW
Can not meet
requirement of
MP2MP
interconnection
for LTE X2
interfaces, and
bearing full
service such as
multicast
S1
Mobile Backhaul
X2
STM-N
X2
eNB
●
X2
eNB
eNB
MSTP network carries service traffic through rigid pipe (VC), with limitation of low statistical multiplexing
efficiency, low encapsulation efficiency and poor service convergence;
●
MSTP only involves L1 and L2 protocol, can not meet demand of future Packet based full-service Transport.
22
Packet-oriented Transport Technology - PTN
Packet Transport Network (PTN)
Packet Technology
（MPLS/Enhanced
Ethernet）
 L2/L3 Packet Switching
 Statistical Multiplexing and QoS
 Flexibility in Deployment
PTN
PTN
(Packet Transport Network)
SDH
(Transmission
Experience)
 End-to-end service provisioning
and management
 Precise Clock Sync
 Carrier-class OAM and
Protection
PTN / MPLS-TP = MPLS - Most L3 Complexity + OAM + Protection + Time Sync.
23
ZTE PTN Product Family
ZXCTN 6100
ZXCTN 6200
Access layer
ZXCTN 6300
Convergence layer
Mobile
ZXCTN 9008
ZXCTN 9004
Metropolitan area core
layer
Abis
STM-1/GE
BSC
Business
10GE/new or legacy
network
MGW
Iub
STM-1/GE
S-GW
GE/10GE
RNC
SR
MME
GE/10GE
Residential
Integrated platform,
high-efficiency transmission
Refined operation & maintenance,
simplified management
BRAS
Providing perfect PTN series products
Reliable, security, energy-saving
and green network
24
ZTE PTN Product Family
ZXCTN 6100
ZXCTN 6200
Access layer
ZXCTN 6300
Convergence layer
Mobile
ZXCTN 9008
ZXCTN 9004
Metropolitan area core
layer
Abis
STM-1/GE
BSC
Business
10GE/new or legacy
network
MGW
Iub
STM-1/GE
S-GW
GE/10GE
RNC
SR
MME
GE/10GE
Residential
Integrated platform,
high-efficiency transmission
Refined operation & maintenance,
simplified management
BRAS
Providing perfect PTN series products
Reliable, security, energy-saving
and green network
25
Ring Topology
…
Station
…
Station
Station
Station
Solution 1: single-node interconnection at each site
Aggregation ring
Backbone ring
Aggregation ring
Solution 2: dual-node interconnection at each site
Aggregation ring
Backbone ring
Aggregation ring
Most of optical cables on a railway line are networked in a linear/star architecture, so the solution to
perform ring networking by using the physical lines needs to be considered.
26
Transport of Delivery services
…
Station
…
Station
Central station Station
Delivery device
B1
A1
C1
D1
A
Delivery device
B
C
D
A2
B2
C2
D2
Planning
of service
flow
A
Service Delivery plane
A1
Delivery device
D
A2
C2
C1
B
C
B1
E1 interface
B2
D1
A
C
C1
A1
Aggregation
DNI
D2
C2
A2
Aggregation
Backbone
DNI
Transport plane B1
●
●
●
D1
D2
B
D
B2
Transport device
Delivery devices make up a hierarchical service network and are usually networked by 2M/FE interfaces.
The bearer network realizes efficient, reliable and secure service transport with low latency based on the point-to-point 2M/ FE channel
provided for Delivery devices.
The bearer network guarantees the reliability of service bearing with Ring and DNI protection technologies.
27
Transport of integrated information services, ticketing services and police
services
Integrated
information
network
Dedicated
router
Ticketing and
reservation
system
Common
router
ASP
Station 1
Integrated
information
network
Public security management
information system
Data access layer
Station n
Planning of
service flow
Eth/POS
Eth/POS
Eth/POS
Access
ASP
Data backbone layer
Station 2
Data plane
Ticketing
Public security management
and
information system
reservation
system
Backbone
DNI
MSTP plane
28
Transport of Public Communication services
BSC
BSC
RNC
RNC
BSC RNC
Local
network 2
Local
network 1
Local
network N
…
Station
…
Station
Station
Local
network 2
Local
network 1
BSC RNC
BSC RNC
BSC RNC
DNI
DNI
Transport plane
Local
network N
BTS NodeB
BTS NodeB
29
●
The bearing traffic is
configured and planned
based on the planning of the
mobile local network to
which each station/section
corresponds.
●
The backhaul traffic is
planned based on the
position of the BSC/RNC for
each loc al network.
●
E1/Eth and STM-1 service
interfaces
Aggregation
Transport device
BTS NodeB
BTS NodeB
Station
BTS NodeB
Transport of Video services (single-level aggregation)
Video
conferencing
Video
surveillance
As 5 to 10 cameras are needed
for each small station and we
take an average number, say 8;
the resolution is SD and the
video conference system also
needs to be taken into account,
so the bandwidth required is
6*8+8=56M.
Station
Video
conferencing
Station
Video
surveillance
As 10 to 15 cameras are needed for
each big station and we take an
average number, say 12; the
resolution is SD and the video
conference system also needs to
be taken into account, so the
bandwidth required is 6*12+8=80M.
The total bandwidth required is:
Number of big
stations*80M+number of small
stations*56M
Central station Station
Planning of
service flow
FE
Transport
network
●
Bandwidth●
●
Aggregation
DNI
Aggregation
Backbone
DNI
The bandwidth required for the access layer ranges from
200 to 400M (4 to 8 nodes).
The bandwidth required for the backbone layer ranges
from 1 to 3G (4 to 8 access rings).
Transport
device
Service
access
If HD video surveillance is needed, the planned
bandwidth should be doubled.
30
●
Video conferencing services can be connected to the
MSTP/ in EoS mode or PTN
●
Separate networking is recommended for monitoring
services, which should be directly connected to the
MSTP in the EOS mode or PTN
Transport of Video services (two-level aggregation)
Video
conferencing
Video
surveillance
Video
conferencing
Video
conferencing
Video
surveillance
Video
surveillance
CCTV
Station
Big station
Central station
Station
Planning of
service flow
FE
Aggregation
DNI
Aggregation
Backbone
DNI
Transport
network
Transport device
●
Bandwidth
The bandwidths required for the
access layer and backbone layer of the
bearer network are equivalent to those
required in case of the single-level
aggregation.
Service
access
31
●
Video conferencing services can be connected to the
MSTP/ in EoS mode or PTN
●
Separate networking is recommended for monitoring
services, which should be directly connected to the
MSTP in the EOS mode or PTN
Railway Telecommunication Equipment
OCC
Integration Monitor
Control Room
CCTV
Wireless
PA
Private T
SCC
Station Room
32
Public T
Railway telecommunication Equipment
Camera
Speaker
Station Equipment
Digital Clock
Station Equipment
33
Solution Highlights
•
•
•
•
Broadband and large-capacity digital transmission NW
Integrated multi-service communication network
Equipment with standard interface- Safe and reliable
Interconnection with existing and public network
MSTP/PTN
• Better non-real-time and real-time business
• Rich business connector
• Enhanced equipment with ADM, DXC and
IP/ATM/Ethernet functions
• Support 155/622/2.5G/10G smooth upgrade
CCTV Design HD-Based Solution
- HD IP camera-based on H.264 protocol
- Every station can realize the local monitoring and record
- Every camera can upload the video to the upper level
center
- Based on Metro IP Bear network
- 3G/Wimax camera as backup solution
- Access control and detection sensor as the supporting part
GoTa Digital Wireless Trunking System Providing
Dispatch Solutions:
- Traffic scheduling scheme
- Maintenance scheduling scheme
- Disaster prevention scheduling scheme
- Environmental control scheduling scheme
-Emergency scheduling scheme
Integrated Power System
- Easy for maintenance and management.
- Reduce equipment room space
- Overall design, unified configuration, resource sharing,
saving investment
-Improve the reliability of UPS and the power system
Clock System
- Provide unified time for the line staff
- Provide standard time for passengers
-Offer standard time information for other systems
Public Address System
- Automatically broadcast train arrival and departure
information
- In emergencies, system broadcasts information for
passengers.
34
Agenda
 Requirements Analysis for RCS
 RCS Solution
 Successful Case Studies
 ZTE Overview
ZTE and Railway Construction

10 years + experiences

Design, procurement, construction, integration

Engaged in more than 30 railway construction
projects domestic and international.
36
Railway Modernization Project in Vietnam
•
Modernization of telecommunication
and signal on North Vietnam
•
•
•
•
•
•
Hanoi - Dong Dang
Hanoi - Thai nguyen
Hanoi - Lao cai and
Hanoi Junction
650Km, 65 Stations
Offer Planning, design, Equipment,
Deployment and Integration services.
37
Railway Signal Project in Uzbekistan
•
•
•
•
•
•
Modernization of telecommunication and signal in Uzbekistan
Successfully provided scheme, design, procurement, construction services
116kms, 9 stations
Signaling: CBI, axle-counting, Signal Machine
Telecom: SDH, PABX, Dispatch, PA, etc.
Duration: 2 years
38
Metro Rail Projects in China
NO.
Carrier
1
Bei Jing Metro
company
2
Chong Qing
Metro company
3
4
Contract
Signing
Date
Project
System
Capacity
and Scale
Equipment List
Telecommunication system
integrated for first-stage
Jun-2006
construction of 10th line(include
Olympic Line) of Bei Jing Metro
Transmission、service telephone、special
22 stations telephone、wireless 、CCTV、Public
Alarm、clock、power supply and so on
Telecommunication system EPC
for first-stage construction of
Chong Qing Metro
Transmission、service telephone、special
14 stations telephone、wireless 、CCTV、Public
Alarm、clock、power supply and so on
Jul-2003
Telecommunication system
Guang Zhou
2004-6-28 integrated for 1st line of Hang
Metro company
Zhou Metro, Guang Zhou
Tian Jin Metro
Telecommunication system
company
2009-4-20 integrated for 2rd line of Tina Jin
Metro.Tian Jin
39
Technical Support, design liaison,
Production superintendent ,test,
management, installation and debugging
34 stations
superintendent, check and accept,
technical document management and so
on.
Technical Support, design liaison,
Production superintendent ,test,
management, installation and debugging
19 station
superintendent, check and accept,
technical document management and so
on.
40
Qinghai-Tibet Railway Line Monitoring Project
Anduo
Golmud RPR 1
Liantonghe
Gangxiu
Tuoru
Gulu
Zhakazangbu
Tanggula
Golmud RPR 2
Dangxiong
Buqiangge
Yanshiping
Chumaerh Xiushuihe
Wangkun e
Riaquchi
Yangbalin
Angga
Tongtianhe
Xiaonanchuan
Ganlong
Gurong
Tuotuohe 1
2.5G optical ring
network
(Golmud ring)
Golmud
2.5G optical ring
network
(Lhasa ring)
West
Lhasa
Lhasa RPR 1
Tuotuohe 2
Nanshankou
Lhasa
Maxiang
Nachitai
Yangbajing
Lhasa RPR 2
Yuzhufeng
•
•
•
•
Daqiongguo
Wuli
Jiangkedong
Largest commercialized
technology in
Budongquan network with RPR over SDH
Kaixinling
Wudaoliang
a region at 4000m above seal level
Tanggang
45 stations with a total length of 1140km-7 manned & 38
unmanned
Bumade
stations
North Tanggula
Real-time video surveillance and the network supports voice services.
South Tanggula
Advantages of statistical multiplexing, spatial reuse, flexible
bandwidth allocation, short transmission latency …
41
Wumatang
Sangxiong
Tuoju Cuona Diwuma
Lake
Naqu
Manned
station
ZXMP S385
Unmanned
station
ZXMP S385
Harbin-Dalian Passenger Transport Line
Shenyang Railway
Bureau Dispatching
and Machinery Room
Shenyang
Communication Station
Branch of Shenyang
Institute of Electronics
Bureau Electron Institute
New Dalian
622 M
Branch of Dalian
Institute of
Electronics
Dalian
Communication
Station
2.5G
New Dalian
Dalian
Shenyang
STM-64 Multiplex section
1+1 Protection link
Dalian
Signal
Cabin
Two-fiber channel
protection ring
Two-fiber channel
protection ring
STM-4
STM-4
Odd base station
and signal node
2.5G
Branch of Changchun
Institute of Electronics
2.5G
Changchun
North
Shenyang
Power traction node
Even base station
and signal node
Even base station
and signal node
In-station node
Legend:
ZXMP S385
STM-64
Multiplex terminal
Multiplex terminal
Shenyang
Communication
Station
To the existing
2.5G equipment
STM-4 Two-fiber channel
protection ring
Odd base station
and signal node
Odd base station
and signal node
Changchun
Communication
Station
Even base station
and signal node
STM-4
West
Changchun
Two-fiber channel
protection ring
Odd base station
and signal node
Power
traction
node
Even base station
and signal node
In-station node
In-station node
ZXMP S385
STM-16
Harbin
Communication
West Harbin
Station
ZXMP S385
STM-4
STM-4
Two-fiber channel
protection ring
Multiplex
terminal
Odd base station
and signal node
Power
traction node
Even base station
and signal node
In-station node
In-station node
ZXMP S330
STM-1
This project uses the MSTP technology for transport of railway communication services -Delivery
services, office system services and monitoring services.
42
National trunk line: communications network for
Baoji-Chengdu Railway Line
Baoji
ADM
ADM
Fengzhou
Huixian
ADM
REG
Lueyang Yangpingguan Guangyuan Banzhuyuan
REG
REG
ADM
REG
Jiangyou
REG
Mianyang
ADM
Deyang
REG
ADM
After reconstructing five major high-speed ring networks in 2001, China Railcom launched the optical cable communication
project for 6 major trunk lines in 2002 and “Baoji-Chengdu Line Access Network Project” was part of that project. For BaojiChengdu Line Access Network Project, 11 communication stations and 60 intermediate stations were arranged and the
project includes the “long-distance network ” and “access network”; wherein, within Xi’an-Chengdu Section the SDH STM-16
long-distance network, including 6 STM-16 ADMs and 6 REGs, was put into operation. ZTE adopted the MSTP technology
to build the long-distance network and this showed that it took into full consideration service scalability, smooth upgrade
ability, reliability and protective actions. At the same time, it constructed the STM-4 access network by using the ZXA10
access network device at each station to provide such services as automatic telephoning, 2/4-line audio channels,
N*64Kbit/s (V.35), 2B+D, etc, and at the same time it provided a 2Mb/s digital channel for the dedicated digital railway
Delivery system.
43
E-MSTP video transmission system for Lanzhou-Xinjiang
Railway Line
Bage
Qiquanhu
Xiaputule
Shanshan
Turpan
Bi-direction 1.25G RPR ring
Meiyaogou
Hongshankou
The Mountain of
Flames
In this project, an E-MSTP system was newly provided for 8 stations to transmit video
information between such 8 stations. The system uses the RPR technology based on the
RPR over SDH, and thus has the advantages of statistical multiplexing, spatial reuse,
flexible bandwidth allocation, short transmission latency, etc.
44
Hankou-Yichang Passenger Transport Line
Hankou
Zhujiatai
Hanchuan
Qianjiang
Xiantao
Jingzhou
Zhijiang
East
Yichang
2.5G linear multiplex section protection
Legend:
2.5G (1+1)
ZXMP S385
For this project, the STM-16 optical synchronization digital transport devices are
arranged in signal cabins at the stations along the line and such devices are mainly
used for transporting Delivery services and monitoring services and also can provide
transmission channels for integrated information services.
45
Transmission network for Zhengzhou-Xi’an Passenger
Transport Line
EMS (Active)
EMS (Standby)
10G
10G
DCN
LCT
Legend:
:
STM-64
STM-1/4
For the backbone layer of the transmission network in this project, the STM-64 ADM
devices were adopted, and at stations and within sections at the access layer 224 sets of
622Mb/s MSTP devices and 20 sets of 155Mb/s MSTP devices in total were mounted.
The main services borne by such network are Delivery, integrated information and
monitoring services.
46
Application cases in railway communication industry










47
Harbin-Dalian Passenger Transport
Line
Xiangpu Passenger Transport Line
Changchun-Jilin Passenger
Transport Line
Hainan East Ring Passenger
Transport Line
Shanghai-Ningbo Passenger
Transport Line
Inner Mongolia Section of BaotouXi’an Railway Line
Communications system for South
Tongpu Rialway Dedicated Line
Project of Communications system
for Heyanri Branch Line
Communications system for Inner
Mongolia Lince Railway Line
……
Milestone Achieved
 Communication system Construction/Integration for











Guangzhou Metro Line 2 (2000); 3 [2003]; 4 [2004], 28 Ext.Sect [2007], 3 North Ext Sect [2009]
Zhujiang Xincheng section of Guangzhou Metro Line (2009)
Extended section of Shenzhen Metro Line 1 (2006)
Shenzhen Metro Line 3 (2007)
Beijing Metro Line 10 (2006]; Yizhuang Section [2009], Changping Section [2009]
Tianjin Metro Line 2 (2009)
Vietnam railway project (2005)
Hangzhou Metro Line 1 (2008)
Ningbo Metro Line 1 (2009)
Tianjin Metro Lines 2&3 (2008)
Chengdu Metro Line 1 (2008)
 Turnkey contract of the communication system construction for






Phase 1 of Shenzhen Metro Lines 1&4 (2001)
Shenzhen Metro Line 5 (2008)
Phase 1 of Chongqing Light Rail 2 (2004)
Phase 2 of Chongqing Light Rail 2 (2005)
Beijing Metro Line 5 (2006)
Uzbekistan railway project (2008)
48
Agenda
 Requirements Analysis for RCS
 RCS Solution
 Successful Case Studies
 ZTE Overview
ZTE Corporation
• Multinational Telecom company, founded in 1985
• Globally Ranked #4 in terms of handset shipments
• Listed in Shenzhen as ‘A Share Stock’ in 1997 and in Hong Kong as ‘H Share Stock’ in 2004
• Transparent financial reporting structure
• Audited by Ernst & Young
•
R&D and innovation are core company values and drive standards and patent acquisition
•
•
•
•
•
•
•
Ranked #1 globally in international patent applications in 2011
40,000+ Patent applications; 9,000+ International patents
3178 PCT patents granted in 2011, Rank #1 across all industries in China
15 R&D centers worldwide; 26,000 +R&D staff- #1 of China-listed companies
Dedicated to fulfilling customer and market requirements
Moving into emerging technologies e.g. Cloud computing and Integrated Circuit
Revenue Growth in Q1-Q3 in 2011 was 33.4% [in US$]
•
•
•
•
Ranked #1 across all industries worldwide [Source: Frost & Sullivan]
Contract sales in 2010 exceeded 100 billion RMB
Operating revenue in 2011 exceeded 10 billion US$
Revenue from international operations grew 36.41% in H1’2011 [55.74% of total operating revenue]
50
Global Operation

70,000 Employees
North America
Europe
Asia Pacific
 107 Branches globally
AT&T
British
 9 Logistics centers
BCE
Bouygues Telecom
BSNL
Deutsche
Telekom

France
Telecom
Rogers
KPN
Sprint
MegaFon
Telus
Time Warner Cable MTS
OTE Hellenic
US Cellular/TDS
Portugal Telecom
Verizon
SFR
Svyazinvest
Tele 2
Telecom Italia
Telefónica
Latin America Telenor
TeliaSonera
 América Móvil
Turk Telekom
 Brasil Telecom
Turkcell
vimpelCom
 CANTv
Vodafone
 Oi
 Telecom
Argentina
 Telmex
China
MetroPCS
 14 Global training centers
 7 Regional customer centers
 45 Local customer centers
 10,000 after-sales staff
 3,000+ local partners
 Deployment by
61 of
Top 100 global operators.
Telecom
Bharti Airtel
Mobile
Telecom
China Unicom
KDDI
KT Korea Telecom
Hutchison
LG Telecom
PCCW
PLDT
PT Telkom Indonesia
Reliance
Sing Tel
SK Telecom
Softbank
Telstra/CSL
Telecom Malaysia
China
MEA
Etisalat
Orascom
Maroc
Telecom
MTN
STC
Telecom
Telkom
Egypt
S.A.
Zain
Serving 500+ Operators in 140+ Countries
As of End of 2010
51
Summary of features of RCS
• The office network,
production network
and external service
network are isolated
from each other.
• Services are
characterized by
aggregation.
• High reliability,
availability and
security.
• Interconnection is
realized via the data
network and certain
bandwidth
requirement is
presented (several
Ms to tends of Ms).
Integrated
information
network
•
•
•
•
strictly isolated from
other networks
Full-range
networking,
distributed control,
and centralized
Delivery.
High efficiency,
reliability, availability
and security
Large No. of 2M
Interfaces
Delivery
system
• Isolated from other
service networks.
• Full range networking,
information sharing
and distributed
processing.
• High reliability,
availability and
security
• Interconnection is
realized via the data
network and
bandwidth
requirement is
10/100M
Ticketing and
reservation
system
• It is a private network
and is required to be
isolated from other
service networks.
• Full-range networking,
information sharing,
distributed processing
and centralized
monitoring.
• High reliability,
availability and
security
• Multimedia service
require higher
bandwidth
Public security
management
information
system
Railway communication system
53
•
It is a service network
for public and is
required to be isolated
from other service
networks.
•
Networking is
performed separately
depending upon
different local network
homes.
•
High reliability,
availability and security
•
E1/FE interfaces
Public network
Suggestions for solution for synchronous network
deployment
…
Station
1) Frequency
synchronization:
…
Station
Standby
Station
PRC/SSU
Active
Station
PRC
●
For frequency synchronization, transmission of synchronized
signals can be realized via the SDH network
●
The SDH network is used for telephone system for Delivery
services, and such service systems as GSM, WCDMA, etc.
2) Time
synchronization:
GPS
GPS
GPS
●
For accurate time synchronization, the transmission of clock signals cannot be realized via the MSTP network but can be only realized by installing the GPS
devices.
●
The installation of GPS devices can be used for the Delivery system and such civil systems requiring highly accurate clock signals as CDMA/CDMA2000, Wimax,
LTE, etc.
●
For applications having no high requirement for timing accuracy, clock signals can be transmitted via the network, such as the office system, ticketing system, etc.
54