5g vision - dash industry forum | catalyzing the adoption...
TRANSCRIPT
Ali Khayrallah Ericsson Research San Jose, CA
5G Vision
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Industry transformation
Transformed Industries Traditional Industries
Devices Applications
Operators & Network
Digitalize & Mobilize
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5G Use Cases
Broadband experience everywhere
anytime
Smart Transport
Infrastructure and vehicles
Remote controlled machines
Mass market personalized media and
gaming
Human machine
interaction
P
Meters and sensors,
“Massive MTC”
And much more
Multiple use-cases supported by a common network platform
? ? ?
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Wide Range of Requirements
Data rates Traffic Volume Density
Device Density
Latency
Reliability Energy Efficiency
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One network – multiple industries
@
A common network platform with dynamic and secure Network Slices
Industry is Transforming
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Key Core Components
VNF VNF
Central Data Center
VNF VNF
Distributed Data Center
Network Slicing Distributed Cloud Software Defined Networking (SDN)
Virtualization
VNF VNF
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The evolution of the core Network
2G 3G
4G
CS (voice)+ PS (GPRS)
3G RAT CS+PS
coexistence Policy Control
4G RAT CS fallback
PS based comm. Increased RAN-CN
security CP/UP split by MME
IP Optimized
2020 2000 1990 2010
Rad
io
Cor
e N
etw
ork
5G
Evolved Core
New Core
Enabler: Common architecture framework
Commercial in confidence | 2015-08-17 | Page 7
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5g radio ACCESS & Spectrum
New radio-access technology
Existing spectrum
Interworking
New spectrum
Evolution of LTE Backwards compatible
Overall 5G solution
1 GHz 3 GHz 10 GHz 30 GHz 100 GHz
Spectrum flexibility
Unlicensed Shared licensed
Complementing dedicated
licensed spectrum
Flexible duplex Spectrum sharing FDD and TDD Dynamic TDD
Full Duplex
NX
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5G Spectrum
1 GHz 3 GHz 10 GHz 30 GHz 100 GHz
WRC’ 15 WRC’ 18/19
Lower frequencies for full-area coverage… …complemented by high frequencies for extreme capacity and data rates in dense scenarios
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• 40 MHz @ 2.6 GHz + 100 MHz @ 15 GHz
• 32 Gbyte/user/month
• 40 MHz @ 2.6 GHz • 32 Gbyte/user/month
• 100 MHz @ 15 GHz • 32 Gbyte/user/month
High-frequency operation
• 40 MHz @ 2.6 GHz • 4 Gbyte/user/month
Higher-frequency spectrum needed to satisfy future traffic demand
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Joint low-frequency/high-frequency operation needed for full-area coverage
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Technology Areas
1 GHz 3 GHz 10 GHz 30 GHz 100 GHz
4G
Extension to higher frequencies
5G
Flexible and scalable design
Spectrum
Deployment Use cases
Access/backhaul integration
Multi-site connectivity
Integrated D2D
Beam-formed transmission
System control System control plane
Ultra-Lean Design
Data
Flexible PHY
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Beam-centric NX design – self-contained data transmissions – mobility between beams rather than nodes – system plane matched to beam-formed user plane
Beam-formed transmission
To enable the capacity, data rate, and coverage needed in the 5G era
For both high and low frequencies
For both NX and LTE
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› Ultra-lean design – Higher achievable data rates – Reduced energy consumption – Future-proof design
Ultra-Lean Design
› System Control Plane – Decouple system and data functionality – Minimize broadcast – provide sysinfo on demand – Data capacity scales independent of system overhead – Enables advanced antenna solutions
System control
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Multi-Site Connectivity
Intra-layer Inter-layer
Reception of beams from multiple sites – Continuous connectivity Mobility robustness – Distributed MIMO Higher data rates
Simultaneous connection to macro and pico – Robustness despite spotty small-cell coverage
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Extreme Reliability
Radio link performance
System Performance
E.g. BER 10-9
or Latency <1ms
Industrial or Real Time
Critical Infrastructure
Normal operation Consumer grade
Robust operation Extreme Performance in disasters and severe system interference
E.g. loss 10-3
Latency <30ms
› Coordination – Spatial diversity – Multi-hop/Mesh – Network coding – D2D – Interference
cancellation – Spectrum use – Channel coding
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› Efficient sleep modes › Flexible device bandwidth › D2D relaying for coverage extension
Machine-type Communication
› Very short TTI › Coding/frame structure allowing
on-the-fly decoding › Multi-level diversity
Low cost, low energy consumption, large number of devices
Very low latency and ultra-high reliability
MAS
SIVE
C
RIT
ICAL
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5G radio test bed World’s first > 5 Gigabit/s in lab
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Industries and society are transforming
Tough requirements on future networks from increased demand and new services
Key technology concepts and components are identified, researched and evaluated
Summary
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