Network Service Provider Transformation Trends and · PDF fileNetwork Service Provider...
Transcript of Network Service Provider Transformation Trends and · PDF fileNetwork Service Provider...
Network Service Provider Transformation
Trends and the Enabling Technologies
Wing Kin Leung
CTO, Huawei Enterprise
May, 2016
2
Core Network Re-Architecture 1
Access Network Evolution 2
References 3
About Huawei 4
3
Core Network Re-Architecture: The “Four Trends”
DC Centric
Independent DC/DCI
SDN Enabled Backbone
Re-Architect via
NFV@Aggregraton &
NFV@Edge
+ Bandwidth Evolution
Cloud-based
Business
Cloud-based
Network
Telco
Cloud
Public Cloud
Telco Cloud
Enterprise Cloud
IOT, Big Data, 4K, Game, etc.
Cloud Service
Enterprise Cloud
Desktop
Personal Cloud
Desktop 4G/5G
Network Cloud
vCPE vEPC vCDN vBRAS
Web Service
Home
Enterprise 2G/3G
Core
Metro
Access
Architecture Changes
4
“DC-Centric”: Basis for Network Re-Architecture
•East-to-West Traffic explosion
•Matching DC location and vDC
•Less latency, synchronization
DC-Centric
&Intensive Control &TTM &Open &Cloud and Network Synergy &Agile &Resource Sharing
•4K, desktop cloud, 5G
•NFVI, cloud & network
synergy
Experience CO re-Arc
•Service classification
•Latency and bandwidth
•Cost
Efficiency 3 Layer DC
Interconnecting DCI
5
DC-Centric: 3-layer DC Layout
Principe of 3-layer DC Layout: Experience-based Circle and Function-based Circle
Super
DC
Super
DC
Large DC Large DC
Mini DC Mini DC Min DC Min DC
Core DC
Regional DC
Local DC
Province A Province B Region C
Metro A
Large DC
Metro A Metro B Metro C
30ms
50ms
100ms+
vCDN
Desk & Enterprise
&Network Cloud
Public Cloud
Service/Hosted
Cloud/Web
20KM
300KM
300+KM
1ms
Network
Application
Experience-based
Circle Function-based
Circle
Resource sharing,
centralized
deployment
Data Plane
NFVI
5G/IoT
Application Localization
latency-sensitive
services
Network: Control plane
6
Simplified: Less is More for DC Centric Model
Web Dominated
PE
CR
ME2
ME1
BRAS
Video Dominated
CR
CO
BNG
Less layer for more saving More aggregation for less cost
16:1 2:1
7
Independent DCI for DC Interconnecting
Region-DC
C-DC C-DC
Region-DC
Region-DC
Region DC Pool
DCI Core Node
DCI Core Node DCI Core Node
DCI Core Node
DCI
Access Node DCI
Access Node
Region-DC
DCI Access Layer
Region DC Pool
DCI Core Node
DCI Core Layer
New Requirements
•Core layer FULL MESH solve west-east traffic burst issue
•SDN-based RR+/PCE+ traffic optimization
•Higher Capacity,lower power consumption
•SDN-based CloudVPN Solution
•Match DC deployment principle (physical location) and traffic distribution
•Meet the real-time synchronization / disaster recovery needs
•East-west traffic bursts, difficult to predict changes
•Cloud inter-connection / cloud access / cloud leased line scenarios.
Region-DC
Driven Force
8
SDN for IP Bandwidth Optimization
Agile Controller
P
P
P DC 1
DC 3
PE 1
PE
DC 2
CE
CE
PE
CE
P
DC 4
PE
80%
10%
-Supports the GUI.
-Computes paths based on multiple constraints.
-Flexibly defines SLA.
-Controls users traffic in a refined way,
improving interconnected resource efficiency.
Intelligent traffic scheduling
•PCE -> PCE+
•RR+ as an option for Enterprise
9
SDN Enabled for the “2 Planes”
Optical
R
R
R R R
R R IP
MS-OTN
MS-OTN
MS-OTN MS-OTN
MS-OTN MS-OTN
IP PCE
T-SDN
IP + Optical
SDN Controller
IP Controller
Optical
Controller
•IP Layer Protection
•RIP
•OSPF
•Optical Layer Protection
• Optical ASON
• Electrical ASON
•SNCP
Resource Dynamic Allocation,
Service Orchestration & High Availability
• From 100G -> 400G/1T
• 20T+ OXC per Chassis/100T+ per Cluster • From OTN -> MS-OTN for Service Convergence
•T-SDN for IP/Optical Convergence
Optical Development DC Centric
DWDM
10
Optical Backbone Network Development:Beyond 100G
Flex OTN in 2015
400GE in 2016
400G
100GHz
Standard Processing
[July.2013, Chile]
Industry 1st 400G OTN
Commercial Application
25+ 400G Field Trial
Baudrate Baudrate
Nyquist FTN
FTN solution
400G
100G/
50GHz
400G
FTN: Faster than Nyquist 400G WDM start
Industry short haul 400G
2SC-PDM-16QAM@600km
Spectrum Width < Baud Rate
ULH / Single carrier 400G
1SC-PDM-16QAM@800km
2SC-PDM-QPSK@3000km 200G/
100GHz
Standard & Industry Mass Deployment Technology Innovation
11
IP Core Development--Big Data Era Demands 400G/1T+ IP Core
Perfect
Experie
nce
8K UH
4K SHD
FHD SD
New Service Drives Bandwidth Growth
high definition
high responsiveness
64K~4M: internet 10M: HD 300M: 8K UH 4M: SD
Bandwidth Assessment by IEEE
400G~1T
• Massive 100GE ports are being deployed worldwide.
• Declining per bit cost stimulates the deployment of
dense 100GE.
Cloud DC Cloud DC
Cloud DC
Excellent Poor
Cloud
Service A
Cloud
Gaming
Cloud
Service Z
Super Core
12
Challenges of VPN Provisioning
Delivering work orders to service
departments
1
day
Feedbacks from multi
departments.(IT&CT, multi-
vendor, multi-regional)
10
days
Summarizing results of the
analysis, getting E2E service
ready
4
days
Delivering work
orders to engineer
1
day
Waiting for engineer
schedule
5
days
On site service
installation
1
day
Delivering work
orders to engineer
1
day
Waiting for
engineer schedule
5
days
On site service
checking
1
day
Ordering a VPN
service at office
1
day
Workflow
Details
Tenant ordering
CPE install CPE delivery Fiber checking
1 day 15 days 7 days 7 days
Provisioning
Time
(Operator B)
Solution unrelated preconditions :
Fibers ready
CPE delivered
Challenges Multi-vendor devices management
IT & CT resources orchestration
Multi-domain resources process
No tenant portal Need on-site service Need on-site service
E2E service getting ready
(MPLS, IP VPN..)
Device configuration and
service provisioning
Service monitoring and
customer signoff
30 days
13
Leveraging SDN for Provisioning: From Days to Minutes
Delivering work orders to service
departments
1
day
Feedbacks from multi
departments.(IT&CT, multi-
vendor, multi-regional)
10
days
Summarizing results of the
analysis, getting E2E service
ready
4
days
Delivering work
orders to engineer
1
day
Waiting for engineer
schedule
5
days
On site service
installation
1
day
Delivering work
orders to engineer
1
day
Waiting for
engineer schedule
5
days
On site service
checking
1
day
Ordering a VPN
service at office
1
day
Workflow
Details
Tenant ordering
CPE install CPE delivery Fiber checking
1 day 15 days 7 days 7 days
Provisioning
Time
(Operator B)
Solution unrelated preconditions :
Fibers ready
CPE delivered
Challenges Multi-vendor devices management
IT & CT resources orchestration
Multi-domain resources process
No tenant portal Need on-site service Need on-site service
E2E service getting ready
(MPLS, IP VPN..)
Device configuration and
service provisioning
Service monitoring and
customer signoff
30 days
14
NFV technology drives next generation networks
NG PoP to achieve FMC
Network function virtualization Network 2020
SDN/NFV enabled network
architecture to achieve device
reconstruction and cloud-based
network function Domain2.0
POP re-architecture with NFV
cloud-based, unified resources
NG network
New Operations
Centralized control, flexible scheduling,
Maximum utilization of resources
Benefits
New Architecture
Software, virtualization, programmability
New Services
Open & agile, on-demand service
NFV leads to network cloudification, promoting an intensive and efficient network
15
POP Re-architecture: the 1st step of NFV
Unified bearer network
Higher service capabilities
Challenges
100K+ FBB users
100K+ MBB users
100+ enterprise tenants
POP:N1
AT&T: 62% CO reduction
Less CO sites POP Re-architecture with NFV:
• Virtualization: BRAS, VAS, CPE to be Centralized control
• Unified deployment of VNE: to promote POP transition to DC
• Unified cloud resources :universal bearer of ICT resources
NFV Roadmap
Commercial
value
Difficulty to implement
OLT
High
Low
High Low
VAS
IP CORE
IMS EPC
OTN
Control
Service
CPE
CDN
BRAS Bearer
Cloudified Architecture
VM resource sharing
Resource flexible allocation
16
CloudEdge:POP Re-architecture with NFV
Flexible allocation of resources
& intensive control
To enable auto service provisioning To promote smooth network
evolution
Enterprise (vE-CPE) Cloud value-added service Cloud Edge GW(decouple
NFVI) Residential (vBNG)
Residential
• vBNG
• vCDN
Enterprise
• Firewall
• Anti-Virus
• IDS/IPS
• vE-CPE…
UE INT
ER
NE
T
Residential
OLT Residential
Enterprise
POP
CloudEdge GW
vE-CPE vBNG
NFVI
VAS
VNFM
Netmatrix
VIM SNC U2000
APP/Portal
IP
Backbone
17
Control Point Sinked to Edge for Cost Saving
Low Cost:Save leased line fee Easy OAM:Fast TTM, No Broadcast Storm14
10K×50×4Mbps =
200Gbps 100×50×4Mbps =
2Gbps
User N × channel × BW
PP
PoE
PP
PoE
CO N × channel × BW
BRAS
miniBNG miniBNG
L3
VLAN add in all CO sites VLAN add only Local CO
L2
VLAN100
VLAN100
VLAN100
New User
VLAN100
New User
miniBNG
BRAS
miniBNG
18
Re-Architecture via NFV also @Customer
All network functions on Premise with multiple
devices :
Management;
L2 functions(DHCP/Switching/etc.); Routing
Firewall; WOC
Thin CPE Thin CPE
PE
PE
IP CORE
PE
Traditional CPE
Internet
NFVI-
POP
PE
ICT Gateway
A. CPE@Customer
Premise
B. CPE@CO C. CPE @Customer DC
Branch Branch
CloudCPE deployed at
various locations
CloudCPE
Branch
Branch Firewall WOC
All network functions on Premise with
One devices :
L2 functions(DHCP/Switching/etc.)
Routing; Firewall; WOC
Network functions gradually to the
cloud :
Centralized automation management
Firewall/IPS/etc.
Network functions to the cloud :
Centralized automation management
DHCP/NAT/Routing/etc.
Firewall/IPS/etc.
①
②
③
④
CloudCPE
CloudCPE
Centralized Corporate IT
Infrastructure
19
NFV@Customer Premise enables ICT-in-a-Box
Switch Voice
gateway Firewall Router Computing
unit
Storage
resourc
e
Mail server Video
accellerator
Extended from Networking to Computing and …
Virtualization via NFV AR Hardware Platform (x86 & ARM)
Linux
KVM
Virtual
Machine
Linux
Guest OS
Virtual
Machine
Windows
Guest OS VRP Android
Linux
Applications Windows
Applications
Android
Applications
Linux
Applications
APPS @Edge Software Architecture
20
Industrial IoT as the New Market for Access
NVF@Edge plus Hardware Specialization
Adapted to Application Requirements
• Capacity
• Type of uplinks/downlinks (Ethernet, xDSL, WiFi,
GPRS/3G/4G, PLC, Zigbee, RS232/485, etc.)
• Number of uplinks/downlinks
• Indoor vs. Outdoor (Office used vs. industrial Platform)
• Type of CPUs (ARM, x86)
• Operating Systems (KVM, Android)
• Special accessories (Video Surveillance, Video/Audio
Output, USB, etc.)
NFV/Virtualization available
With optional User Applications loaded
Choice of Hardware
21
Integrated Solution with Cloud, SDN & NFV
For Zero-Touch Service Orchestration, Deployment & Management
Application
Software
Warehouse Switch Voice
gateway Firewall Router Computing
unit
Storage
resource Mail server Video
accellerator
Extended from Networking to Computing and …
Resource
Management
Via SDN
Resource
Virtualization
Via NFV
System
Software
Warehouse
Intelligent Gateway with APPS
on Different Form Factors Cloud based Data Center SDN Controller
22
Core Network Re-Architecture 1
Access Network Evolution 2
References 3
About Huawei 4
23
From Pipe to User Experience
4K/8K Video
Smart Home
HD Voice 1M
10M
100M
1G
Gigaband
U-vMOS
HTR
ROADS
e-Payment
24
From Broadband to Gigaband
Redefine Broadband
25M
300M
Redefine Ultrafast
Broadband
300M-1G
Gigaband world
is coming
Bandwidth
Coverage
Experience
~1Gbps
~90% coverage
25
Faster than Faster
Copper
FTTH
Moblie
WIFI
NG OLT IP + Optical / Fiber Backbone/DCI
1T/2T 100G/400G 10G/WDM-PON
ETTx
1. xDSL: SuperVector/G.fast
2. Fiber: 10G PON / TWDM-PON / XG2-PON
3. Coax: DOCSIS 3.0 / DOCSIS 3.1, towards Distributed
4. Wifi: [email protected] / 5G@11ac, from Wave 1 to 2
5. Ethernet: 1/2.5Gbps to Desktop, 10/25/40Gbps to Server,
40G/100G as Backbone
1. IP: 100G/card ->400G /card->2T Router
2. Optical: 100G OTN->400G OTN -> 1T OTN
3. System: 25T+ /rack -> 50T+/rack -> All-Optical
SDN / NFV Enabled
@Giga
26
Innovations Drive Giga Access
• Giga Fiber: GPON => 10G PON(XG(S)-PON) => 40G TWDM PON
• Giga Copper: Vectoring => G.fast
• Giga Coax: DOCSIS3.0 => DOCSIS3.1
1G
100M
10M
ADSL2+ DOCSIS3.0
Vectoring
GPON
10G PON
802.11ac
DOCSIS3.1
G.fast
40G TWPON
100Mbps
1Gbps
5GBB
10Gbps
27
PON Evolution:GPON->10GPON->40GPON
GPON
2.5G/1.25G
100~200G TWDM PON
4*25G or 8*25G
2007 commercial 2012 commercial standard:2016.H1
commercial: ~2018
standard:>2017
XGS-PON
10G/10G
Standard:2016.Q1
Trial in 2016.5, commercial in
2016.H2
40~80G TWDM PON
4~8ch/10G for 1ch
XG-PON
10G/2.5G
100M~1G/user 10G+/user
28
Implementation Considerations @Aggregation
Large Aggregator
• Non-blocking all 4K/8K users online
• High capacity and distributed structure
• U-vMOS to monitor video QOS
Ultra Broadband
• 10G PON, TWDM PON, WDM PON
• GE/10GE, and 100GE in future
• Any media access aggregator
Efficient management
• Virtual access for different ISP
• Centralized management
• Support SDN/NETCONF in future
GPON
XG-PON
TWDM PON
Home
Office
Move
RRU
NG-OLT MA5800
ISP1
ISP2
ISP3
Office
TWDM PON
FTTH
FTTD
FTTB
FTTC
D-CCAP
20km 5km
Copper Fiber
• Exchange closure with wider fiber coverage
• Common NG-OLT for all FTTx solutions
29
Implementation Considerations @Line Card
XG-PON XGS-PON TWDM-PON Flexible NG-PON
All in One On-demand Protect Invest
3 in 1:
XG-PON : 10G/2.5G
XGS-PON : 10G/10G
TWDM PON :
4λ*10G/10G
3-in-1 Flexible NG-PON allows for Migration
30
Summary: Gigaband Telecom Network Towards ROADS
Metro Backbone
Access
Cloud CO Cloud Edge APP/Service
Edge DC Core DC
Telco OS
Time Delay Driven Cost Driven Bandwidth Driven
CO DC
Copper
Fiber
Mobile
WIFI
ETTx
Ultra-Fast
Giga Fiber / Copper / LTE / Wi-Fi
E2E IP+Optical 100G Beyond
Simplified
No Congestion, Lower Concentration Ratio
Legacy Consolidation, Flattened Hierarchy
Agile
SDN / NFV Enabled
Telco OS
31
Summary: E2E Visual O&M of U-vMOS: uTraffic + IPFPM
CR ONT OLT AGG BNG
Lv2 CDN
CR/HTR
Lv1 CDN
STB
U-vMOS
U-vMOS Monitoring Center: Real-time monitoring of U-vMOS
uTraffic: Restore low U-vMOS user path, deploy IP FPM based on real traffic
IP FPM: Locating problem hop by hop by the result of port traffic, latency and packet loss
1
2
3
U-vMOS Monitoring
Center
uTraffic
32
Market leader with End-to-End & All Access Solutions
BRAS RADIUS
IP Core Router
OLT HSI
NMS
North Bound
interface
Service Management
Platform
Service Provisioning
System
notice
IPTV
phone
HSI
ONT
Modem DSLAM
ONU
E1/GE
Splitter
LTE
RSP CPE NSP
ODN
voice
video
Datacenter
Splitter
HSI
phone ONU CM
Coax
AC
Mobile devices POE
Residential
area FTTH
Copper
Speed
acceleration
CMTS
Ethernet
/WIFI
LTE
All types
Of
Access
End-to-End
Intelligent
@Edge
IoT
All Access
33
T-SDN based WDM/OTN Product Family of Different Sizes
From Backbone to Metro, E2E WDM/OTN
OSN 1800 II/V OSN 1800 V/8800 OSN 8800/9800
CPE
3-Play
Splitter
WiFi
CR/MGW/RNC AR/BNG
T-SDN Controller
Storage,
Video
From Small to Large
34
SDN Ready IP Product Portfolio – Router/BRAS
NE5000E B2B/Cluster
CX600-X3
NE40E-X3
ME60-X3
CX600-X8
NE40E-X8
ME60-X8
CX600-X16
NE40E-X16
ME60-X16 CX600-X2-M16
300 mm
IP Platform
CX600-X1-M4
Converged IP/MPLS
Backbone
FMC Metro: CX600/NE40E Services Access
SA
Softswitch
Internet
Headend
GGSN
DSLAM
/FTTx
LSW
/E-FTTx
CSG Mobile
MSC Server
Firewall SingleMetro
Smart CO NPE
Triple Play (Residential)
VPN (Business)
SR
BRAS
Agg
Agg
RNC/BSC RSG
Core: NE5000E
Unified Mgmt., Visualized OAM (U2000, uTraffic)
S-POP: NE40E/ME60
CX600-X2-M8
CX600-X16A
NE40E-X16A NE5000E-X16A NE5000E-X16
ATN950C
ATN905
ATN910C
10GE/40GE Uplink 480G/Chassis 480G/Slot 1T/Slot, Scale to 2T/Slot 2+8 Cluster
ATN980B
From Small to Large
35
Switch Portfolio For Metro Ethernet – MAN plus Access
Specification S12700 S9700 S7700 S6700 S5700
Slot Bandwidth 640G 480Gbps 320Gbps - -
Port Density 576*10GE / 96*40GE /
24*100G
480*10GE/
96*40GE
480*10GE/
24*40GE
48*10GE + 4 *
40GE
GE up to 96
10GE up to 12
GE Access LSW 10GE Aggregation LSW T-bit Core LSW Agile Switch
Large Bandwidth:10G/40G/100G evolution Large entry:1M MAC,3M IPv4 FIB High Reliability:50ms ERPS/SEP
From Small to Large
36
Access Product Portfolios: Full Access of Different Sizes
MA5800-X17
MA5800-X7
Distributed architecture
200G /slot
GPON/10GPON/TWDM PON
HG8010H
1 x GE
HG8245H
2xPOTS+4xGE+
Wi-Fi
2xPOTS+4xGE+
1xRF+Wi-Fi
2xPOTS+4xGE+
2.4G/5G Wi-Fi
HG8247H HG8245Q
HN8245Q (10G PON ONT)
2xPOTS+4xGE+ 2.4G/5G Wi-Fi
FTTH OLT MA5600T
MA5603T
MA5608T
GPON/10GPON
Giga WiFi
Giga Copper
Giga Fiber
OLT BNG ODN
Gig Coax
Unified Architecture
Gigaband@AnyMedia
Copper (FTTB/C+DSL)
2U;192 Vectoring
MA5616 MA5623
1U; 48 Vectoring
MA5811S-DE16
16* G.Fast
Coax (FTTB/C+cable) MA5633
1. 32DS(1.6G)*8US(320M)
2. 32DS*10US @ D3.0
37
Passive Optical Line (POL) for Campus Network The new market for PON
AgilePOL
Dual backhaul protection
Flattened layer
Point to multiple point passive
fiber splitter
1G/10G ONU plug&play
Multi-service access
Riser Closet
Data Center Core
Switch
LAN Switching
Aggregation
switch
Access
switch
ONU
OLT
POL Highlights
38
Driving CMTS to D-CCAP (Distributed Converged Cable Access Platform)
TV
STB
PC
TX
RX
CM
…
…
D-CCAP
OLT
CMC(coaxial media converter)
• CMTS module • Fiber Node • WDM • EQAM
IP
CATV
Central Site
CATV
VOD TS
IP
US
DS DATA
EQAM
CMTS
Co
mb
iner
CMTS
TV
STB
PC CM
…
…
WDM WDM
Fiber Node
EDFA&WDM
Remote Site
Central Site Remote Site
GPON/10GPON/
40PON
Fiber Coax
Splitter
CATV 1550 nm
US 1310nm
DS 1490nm 1:N
39
Enabled by In-House Solar Chipset
40/32 nm
1.6 w/G
96M Gate
• Four chips: eTM 3.0, NP 3.0,
SF2.0, and TM3.0
eTM3.0 NP3.0 SF2.0 TM(FIC)3.0
65/45 nm
4 w/G
40M Gate
• Four chips: ASE2.0, NP2.0,
SF2.0, and TM(FIC)2.0
ASE2.0 NP2.0 SF2.0 TM(FIC)2.0
130 nm
• Four chips: FIC1.0, PP1.0,
SF1.0, and TM1.0
FIC1.0 PP1.0 SF1.0 TM1.0
16 nm
0.5 w/G
200M Gate
• Three chips: NP5.0, TM5.0,
and SF5.0
R&D in 1999 and launching
in 2004
R&D in 2005 and launching in
2009 R&D in 2009 and launching
in 2012
R&D in 2012 and launching
in 2015
Time
More than 3 million chips are delivered.
Solar3.0 240G NP
Solar2.0 50G NP
Solar1.0 20G ASIC
Solar5.0 1T NP
40
Same in Optical: Investment on Silicon Photonics Chipset
Silicon Photonics chipset
(Alpha Sample)
Separated
Optical
Component
Light Source Guide Light Modulator
Photo-detection
2009.1
Master core Tech. of
integrated light source
Master core Tech. of
process compatibility
Master SiNx core Tech. &
thin silicon platform
2010.6
Master core Tech. of
submicron lithography
Beta sample of
silicon component
2014.6 Single channel silicon
component
Commercial
~2016
2015
2011.9
2013.8 Multi channel silicon
component
Commercial
High Integration
•70% space saving
Low Power, Low Cost
•60% power saving,40% cost saving
41
And the Industry-leading Network Operating System - VRP
2004 2006 2010 2012 2013
Centralized architecture
IPv4 service
SDN
Higher security
Open-flow
NFV
Open interface
Modular OS
10M Routing
Carrier-class HA
IP/MPLS Full Service
VRP V1 VRP V3 VRP V5 VRP V8 Pipe OS
Focus on innovation for 17 years
Multi-core& process
Intelligent resilience distribution
Unlimited routing
Equip. virtualization
Zero loss packet
Distributed architecture
Million routing
IPv4/IPv6 dual service
42
Core Network Re-Architecture 1
Access Network Evolution 2
References 3
About Huawei 4
43
Core Network Re-Architecture 1
Access Network Evolution 2
References 3
About Huawei 4
44
Company with Global Footprints
• 16 R&D centers, 79000+ R&D employees
• Global 1st largest patent applicant under WIPO in 2014
• 170,000+ employees with 160+ nationalities worldwide
• 15 Regional Headquarters, operations in 140+ countries
▲
▲
▲
▲
▲
Argentina Mauritius
Malaysia
Romania
China
■ ■
■
■
■
India
Hungary
Brazil
Mexico
■
Holland
UAE
■
◆
◆
◆
◆
Bahrain
Germany
R&D center
Huawei Headquarters
Technical support center
Accounting share center ▲
Supply center & Hub ■
Training center
Biding center (Planning) ◆
45
Company with Long Term Sustainable Growth
• Leading global ICT
solutions provider, ranked
228th in the Fortune Global
500 list for its sales revenue
in 2015
• 2/3 of revenue from global
market
• All three Business Groups,
Carrier, Enterprise &
Consumer, with Visible
Growth, Cross Leveraging
• Main contributor of industry
standards Huawei Technologies releases an annual report with consolidated financial statements
audited by KPMG. — From Huawei annual report audited by KPMG
81.8B >35% YoY
10
30
0
20
40
80
50
60
2016
2011
32.4B
2012
35.4B 39.5B
70
2014 2013
2015
Sales revenue (billion USD)
60.8B ~37.1% YoY
America
China
EMEA
Asia
Pac
Other
42.5%
32.4%
12.8%
9.9%
2.5%
37.8%
35%
14.7%
10.7%
46.5B 20.6% YoY
1.8%
46
Leading in Global Carrier Business Market & Technologies
Well Accepted by Operators Worldwide
Top 45 of 50 Market share of major products
Source: Dell'Oro, Infonetics, and Ovum
24%
RAN
No.2
21%
No.2
IP router
44%
No.1
Broadband access
21%
WDM
No.1
47
Huawei in Poland: Contribution to the local ICT Market
In 2008, Huawei implemented the 1st
TDD/FDD LTE 1800Mhz project in the
world in Poland.
In 2012-2014, Huawei won DWDM with
Polkomtel, Orange , Exatel,GTS in Poland
Thanks to the innovative technologies,
Polish consumers could get better services,
and faster access to internet.
Huawei is cooperating with many major
operators in Poland, Providing the latest ICT
solutions to the market.
In 2010, started to deploy Broadband
access network with Orange in Poland.
In 2013, Huawei finished 1st single carrier 400G
test in the world with Exatel .
In 2011, Huawei won Orange + T-mobile
wireless JV project, has deployed over
8000 sites in Poland.
In 2004, Huawei start
promotion in Poland
In 2006-2007, Sign Strategy contract with P4.
Win Orange CDMA and UMTS PROJECT
In 2015, Huawei made breakthrough in
P4,TMPL,PLK and Orange in IT area.First Test
of SDN in Polkomtel
In 2016, Huawei signed the DSLAM
frame contract with Netia
48
Solutions beyond Networking: E2E with Modular Approach
From Fix to Mobility
Safe City
Hosted SME
Media &
Broadcasting
Digital Train
Banking
Industry
Specific
AMI
From CT to ICT
From Managed CPE/
Security LAN/Voice/
WiFi to Managed User
Applications
Connected
Corporate Cloud Service Provider (CSP)
Co-Location
Hosting
Private/Public Cloud
SaaS/AaaS
On Demand Data Center
IaaS/STaaS/UCaaS/VCaaS/VDI/BYOD/etc.
From IT to Industry Specific IoT
Customization & Adaption via PaaS
Access Network
Branch: from Connection to APPS Network Service Driven Data Center Service Driven
Core Network
Plus
-Mobile Driven
-Specific Hardware Design
Plus
-Industry Specific Interfaces
-Specific Hardware Design
Managed Service Provider (MSP)
49
Success through Commit
R&D investment Standards and patents
Membership in 300+ international standards
organizations such as IEEE-SA、ETSI、
WFA、TMF、OpenStack、Linaro、OASIS
and CCSA
280+ positions in international standards
organizations
5,400 standards-related manuscripts in 2015
Standards
52,550 patent applications in China; 30,613
patent applications outside f China.
50,377 patent applications granted (by Dec
31, 2015). Patents
0
5%
10%
15%
9.7% 9.7% 11.6% 13%
2009 2010 2011 2012
14%
2013
USD $9.18 billion in 2015
79,000 R&D employees
16 R&D centers
Continuous increase in percentage of R&D
investment to total sales revenue
14.2%
2014
2015
15.1%
50
Engagement & Contribution to WDM/OTN Standard and Industry
OTN/WDM
45+ ITU-T proposals
9+ OIF PLL drafts
5+ IEEE drafts
2+ CCSA drafts
2007, 1st 10G/40G OTN
2011, 1st 100G OTN
2013, 1st 400G OTN
2015, Flex OTN:G709
Until 2014.11 Until 2015
1 ITU-T proposals
16 RFCs, 20+ WG drafts
2007, 1st WDM ASON
product
2008, 1st OTN ASON
product
2015 OSNR moniter :
G.697
Contributed 16+ standard
proposals
OTU4 for 100G in G.872
PDM-BPSK
OPFDM-RZ-DQPSK
RZ-DQPSK /Flex OTN
100G Tx EVM
Contributed 6+ standard
proposals
ODUflex in G.Hao
ODU3e2 in G.sup43
10GE LAN in ODU2e
ODU0/GMP in G.709
Amd 3
17 special report,
Including 4 Invited Talk
Chair of SG11 SDN WP(ITU)
Chair of Migration WG(ONF)
Stateful PCE(TSDN)(IETF WG)
Carrier WG Req. (OIF)
G.CSO(ITU)
Until
2014.11
ITU-T G.798.1
MS-OTN
T-SDN
Until 2015
100G& Beyond
ASON/ GMPLS
51
Leading In Access Standards Contribution
Fiber
Copper
Cable
Y2015 No.1 Contribution in ITU-
T Access Area
59
35
23
14 10
5
Submmited proposals
Accepted proposals
Huawei
A
ZTE+Adtran
Q4aChair
ALU
legacy DSL
maintain
ALU
PLOAM
BCM
Line test
Qualcomm
G.Fast
Huawei
Les Brown
Frank Effenberger Luo Yuanqiu
Q2 Chair
Huawei
XG-PON
Huawei, ALU, ZTE
NG-PON2
Huawei, ALU, NSN
G.Multi
Huawei, NTT
XGS-PON
Huawei, CTC , Adtran
Dekun Liu
Generic OMCI
Huawei, ALU
Lin Wei
IEEE802.3 Cablelabs
Duane Remein
Standards director
Chief editor 802.3bn
Hesham ElBakoury
Senior HFC system engineer
Cablelabs contributor
Participate in most of CableLabs projects:DOCSIS3.1, EPOC, DPoP, DCA, C-DOCSIS, SDN/NFV
SCTE
Jack Moran
SCTE Committee Chair
Huawei Cable team leader
52
Leveraging Talents Worldwide
Munich
San Diego
Silicon Valley
Dallas
Ottawa Paris
Moscow
Headquarters
Milan
Sweden
Shenzhen
Beijing
Shanghai Chengdu
Xi An Nanjing
Bangalore
Hangzhou Wuhan
Turkey New Jersey
Chicago
Next Generation Internet,
Chips, and Software
FMC, Fixed
Network
Microwave
Wireless &
Network
Wireless &
Device Advanced
manufacturing
Next Generation
Wireless
San
Diego, USA
Dallas Texas,
USA
Moscow,
Russia
Bangalore,
India
Munich,
Germany
Stockholm/
Gothenburg,
Sweden
Paris,
France
Milan,
Italy
Mathematical
Modeling
Component
Sourcing Tokyo
53
Engineering plus Scientific Research
Industry cooperation
Build market pie
Customer cooperation
Prototype
Technology leadership
Customer trial
Business oriented
Industry cooperation
Customer oriented
Innovation Standards Products/Solutions
Now -1 years -2 years -3 years -4 years -5 years
Basic
Research
Applied
Research
Advance
Development
Pre
Development
Commercial
Products
& Solutions Customers
•Requirements
•Strategies
Huawei
•Strategies
•Visions
Cu
sto
mer S
atis
factio
n 2012 Lab BG/BU R&D
Now -1 years -2 years -3 years -4 years -5 years
54
Summary
Engineering plus scientific
research
Solid R&D commitment
with 79,000+ R&D staffs &
>50,000 patents granted
Full range of competitive
products & Solutions
Well recognized by
market with proven result
Over taking on emerging
technologies
Continuing strength our
support to end users &
partners
A better
Technology
partner
THANK YOU
Copyright©2016 Huawei Technologies Co., Ltd. All Rights Reserved.
The information in this document may contain predictive statements including, without limitation, statements regarding the future financial and operating results, future product portfolio, new
technology, etc. There are a number of factors that could cause actual results and developments to differ materially from those expressed or implied in the predictive statements. Therefore, such
information is provided for reference purpose only and constitutes neither an offer nor an acceptance. Huawei may change the information at any time without notice.