Workshop on millimetre-wave Technology for High-speed Broadband
Wireless Networks
Valencia, November 20th 2015
METIS – IIUse of mmW bands
Jose F. Monserrat, Universitat Politècnica de València
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 2
METIS-II Objectives & Partners
19 Partners:
› Operators: NTT Docomo, Orange, DTAG,
Telefonica, Telecom Italia
› Vendors: Ericsson, Nokia, Huawei,
Alcatel-Lucent, Samsung, Intel
› Academia (in Europe): KTH,
Uni P. Valencia, Uni Kaiserslautern
› SMEs: iDate, Janmedia
› Non-European partners: NYU, Winlab, ITRI
Project coordinator: Olav Queseth, Ericsson
Technical manager: Patrick Marsch, Nokia
Develop the overall
5G radio access network design
Provide the 5G collaboration framework
within 5G-PPP for a common evaluation of
5G radio access network concepts
Prepare concerted action towards
regulatory and standardization bodies
1
2
3
Special focus on pre-
standardization
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 3
METIS-II Project Structure
WP 5 – Synchronous Control Functions
and Resource Abstraction Framework
WP 6 – Asynchronous Control Functions
and Overall 5G Control Plane Design
WP 4 – Air Interface Harmonisation and
User Plane Design
WP 3 – Spectrum
Key innovation pillars
WP 2 – Overall RAN Design
and PerformanceOverall 5G RAN Design
Ho
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Ag
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eso
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Ho
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onis
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WP
1 –
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ase
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Re
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Assessm
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WP
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Dis
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Sta
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Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 4
METIS-II Details on Key Innovation Pillars
Air interface variant 1 Air interface variant 2 Air interface variant N
Holistic spectrum management architecture
Common control and user plane framework
Cross-layer cross-air interface access and mobility framework
…
Holistic air interface harmonization framework
Agile resource management framework
PHY 1MAC
PHY 2
RLCPDCP
PHY 1 PHY 2
RLC 1PDCP
RLC 2vs.
Control / user plane
integration on
suitable level
Air interface 1 specific RMAbstraction layer
Air interface agnostic RM layerAbstraction layer
Air interface 2 specific RM
Common mobility control
Common system access
Common measurement handling
MAC 1 MAC 2
Introduction and potential
virtualisation of common
control and user plane
functions
Harmonization of the design and functionalities of air
interface variants, e.g. via parameterization, Parameterizable PHY PHY 1 PHY 2
Parameterizable MAC MAC 1 MAC 2
considering e.g. spectrum > 6 GHz, “novel user groups” and increased spectrum usage flexibility
Air interface
details studied in
other projects,
e.g. METIS,
FANTASTIC-5G,
mmMAGIC
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 5
Spectrum discussions today…
More BW
for FDDTDD capacity carriersRural
broadband
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 6
METIS-II Spectrum Investigations
150m
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 7
Use of mmW bands
- Cellular mmW communications
(pref < 28 GHz – BW > 1 GHz)- Beam track problem reduced
speeds < 30 km/h
- ISD < 200m
- Preference on LoS conditions
high degradation for NLoS cell
edge users
- Wireless Backhaul (up to 73 GHz)- Nomadic nodes
- Wireless relays
- LoS/Near LoS conditions
- Increased latency
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 8
mmW Communication
› Ambition
- Use new spectrum
- Minimum-size of massive MIMO antennas
- Use for backhaul, D2D, indoor and also cellular (less than 200 m)
- Use of higher order beamforming to compensate for additional losses
› Challenges
- HW limitations (antenna design, radio capabilities, space)
- Hardware impairments
- Use of real-time techniques that operate with mobility (not fixed and optimized pointing)
- Inclusion and integration of new bands as extension carriers
- Out-to-in problems
- Regulatory problems
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 9
Massive MIMO
› Ambition
- Enormous enhancements in spectral efficiency without the need for increased BS densification
- Smooth channel responses thanks to the law of large numbers
- Simple transmit/receive structures simple linear transceivers, even plain single user beamforming,
perform close-to-optimally
› Challenges
- Channel estimation, since training for a big number of antennas causes delay and pilot contamination
- Architectural and algorithmical problems, due to the size of this solution
- Coexistence with small cells and mmW
- 2D antenna problems in beamforming design
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 10
Workshop on 5G RAN Design at ICC 2016Paper submission deadline: Dec 4th 2015
A workshop jointly organizedby the 5G-PPP projects:
International Workshop on 5G RAN Designin conjunction with IEEE ICC 2016, May 23 – 27 2016, Kuala Lumpur, Malaysia
Workshop topics:
• Physical layer concepts related to 5G, as for instance
• waveforms, synchronization, numerology, unified frame structure concepts
• means to obtain ultra-low latency and ultra-high reliability
• native support of D2D, V2X, broadcast and multi-cast
• low-complexity massive MIMO solutions and related enablers
• solutions for contention-based access and back-/fronthauling aspects
• MAC, RLC, PDCP and RRC concepts, in particular related to a an efficient integration of multiple
novel 5G air interfaces among each other, and with evolved legacy technology. Examples:
• Novel resource management concepts, tailored to the support of a wider range of service and
QoS requirements and novel communication forms such as D2D
• Novel initial access and mobility concepts, in particular in the context of the integration and co-
location of multiple novel and legacy air interface in 5G
• Novel multi-connectivity approaches and related system enablers
• General considerations on the control and user plane design in 5G RAN
Important Dates:
Submission deadline: December 4, 2015
Acceptance notification: February 21, 2016
Final workshop papers due: March 13, 2016
Workshop Chairs:
Dr. Patrick Marsch, Nokia Networks
Dr. Didier Bourse, Alcatel-Lucent
Organising Committee:
Mr. Mauro Boldi, Telecom Italia
Dr. Frank Schaich, Alcatel-Lucent
Dr. Berna Sayrac, Orange
Dr. Gerhard Wunder, Heinrich Hertz Institute
Dr. Peter von Wrycza, Ericsson
Mr. Krystian Safjan, Nokia Networks
Dr. Joerg Widmer, IMDEA Networks
Dr. Peter Rost, Nokia Networks
Dr. Bessem Sayadi, Alcatel-Lucent
Dr. Gerd Zimmermann, Deutsche Telekom
Thanks for your attention!
Visit METIS-II at:
• 5G architecture booth at
Globecom 2015,
San Diego
• Visualization and
hardware demo at
Mobile World Congress,
2016Find more information under https://metis-ii.5g-ppp.eu/
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 12
BACKUP
Workshop on millimetre-wave Technology for High-speed Broadband Wireless Networks, Nov 20th 2015, Page 13
METIS-II Milestones and Key Deliverables
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R 1.2 Prelim. quantitative
techno-econ. assessment
R 1.1 – Prelim.
scen., requirem.
test cases
D 1.1 – Consolidated scen., requirem.,
test cases, qual. techno-econ. feasibility
D 1.2 Quant.
techn.-econ.
assessment
D 7.3 – Final 5G
visualization
R 7.1 – Prelim. 5G
visualization considerations
D 7.2 – Preliminary
5G visualization
Month
M4: Final 5G RAN
design and 5G
roadmap proposal
M1: Consensus for
evaluation framework
in 5G-PPP obtained
M2: Key 5G RAN
design questions
clarified
M3: Prelim. Assessment
and visualization of 5G
RAN design concepts
D 3.2 Spectrum
roadmap
R 3.1 Prelim. spectrum scenarios,
justification for WRC AI > 6 GHz
D 3.1 Spectrum scenarios,
requirements, rationale
5G-PPP report
Deliverable
D 2.2 Draft overall
RAN design
D 2.4 Final overall
RAN design
R 2.1 RAN
design guideline
methodology
R 4.1, 5.1, 6.1 – Prelim. cons.
on user / control plane design
D 2.3 Performance
evaluation results
D 2.1 Performance
evaluation framework
R 2.3 Prelim.
perf. evaluation
R 2.2 Prelim. perf.
eval. framework
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