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Sg niri 5-g ws conf 2014

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Reshaping mobile broadband with 5G communication technologies

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Sg niri 5-g ws conf 2014

  1. 1. Reshaping mobile broadband with 5G communication technologies 5G World Summit 2014 24th – 25th June, Amsterdam Dr Shahram G Niri General Manager, 5GIC (5G Innovation Centre) CCSR, University of Surrey
  2. 2. Disclaimer: The views and opinions expressed in this presentation are those of the author / presenter and do not necessarily reflect the official position of the CCSR or 5GIC.
  3. 3. Introduction to 5GIC 3 5GIC: 5G Innovation Center  A successful funding bid made by the University of Surrey to the UK Research Partnership Investment Fund (UKRPIF)  Supported by additional contributions from a consortium of enthusiastic and forwarding-thinking operators, infrastructure and solution providers (Founding Members)  Will provide research and business engagement opportunities for multinational companies and SME  The 5GIC is the world's first dedicated 5G programme and an international hub for telecommunication research and innovation with a unique large scale 5G test-bed for network testing. www.surrey.ac.uk/5gic
  4. 4. Ubiquitous, high quality and affordable communications (essential to the functioning of modern life & society) Around half of over 3 B devices connected to internet today are via wireless networks Increasingly the internet is being formed as network of ‘things’, rather than network of computers Hyper-connectivity of billions of devices nut just P2P but P2D, D2D, M2M makes the Internet-of-Things an ever growing phenomenon Users are adopting new habits, how they use mobile phones and how they access the internet More powerful and enabled devices are becoming available and affordable Services are also growing in multiplicity, diversity and richness of content End user delight is absolutely essential to the success of telecom industry Broadband the 4th Utility + Mobile Broadband Outlook Transport Commerce Education Health UtilityICT Telecommunication at the heart of several industries, Transport, Utility, Education, Health & Commerce 4
  5. 5. Drivers for 5G Growing Population Hyper Connectivity Limited Resources Higher Capacity Green Technology Cost Efficiency 5 Quality of Experience Number of connections and also the volume of data over wireless networks continuously growing at a significant rate Users more demanding on quality & price Sustainability of mobile broadband business (ever increasing traffic, higher TCO and flattening ARPU) 3G & 4G both promised improvements in NW capacity, data rate, efficiency, cost and quality  5G will be no exception but the sheer scale of the challenges this time makes 5G research different 5G needs to embrace a significant leap forward in terms of targets Spectrum: finite resource, scarce & expensive
  6. 6. New air interface Spectrum & radio frequency, millimetre wave New NW architecture, Intelligent & adaptive network “Perception of infinite capacity for users” Quality of Experience (Latency & Reliability) New services, e.g. Device 2 device Rethinking spectrum allocation, sharing, reframing Licensed &unlicensed operation Integrated NW & services (Mobile+ Broadcast/Multicast) Lowering TCO (cost per bit / km2) Greener telecommunications Increasing life time of the products (delivering technology through SW) Network sharing New revenue models Utility service type operation 5G: A Paradigm Shift & Rethinking of Mobile Business 6 Technology Services Policy Economics BusinessModel
  7. 7. Multiple access Carrier bandwidth RT Delay TDMA 124 KHz 150 ms WCDMA 5 MHz 50 ms OFDMA&CS-OFDM 20 ->100 MHz 10 ms Small Cell / High frequency 100 Mhz -> higher 0.1-1 ms Data rate 9.6 - 100 kb/s -> GPRS 2 - 42 / 100 Mb/s -> HSPA+ & MC 300 Mb/s - 1 Gb/s -> LTE-A 10 – 100 Gb/s Asymmetric & balanced UL/DL Transport TDM Copper & MW TDM/ATM Copper & MW IP/MPLS Fiber & MW IP/MPLS - Self Backhauling Fiber, MW & mmW Core NW CS Core CS and PS core All PS (Flat IP) NFV SDN Services Voice /SMS Voice & Data /Multimedia IP Voice & Data Mobile Internet IP Voice & Data (HD, 3D, …) TV (Broadcast & Multicast), D2D Service Pricing Voice and SMS Usage based Usage based -> Unlimited/Capped Unlimited/Capped OTT, Cloud Free voice(?), Unlimited/Capped Spectrum L band Licenced operation L band Licenced operation L & S band Licenced operation Millimetre band (C, K, E, ….) Licensed & unlicensed operation Spectrum sharing 2G (GSM) 3G (UMTS) 4G (LTE) Full IP Flat Architecture Efficiency 1 STD Capacity & Spectral efficiency QoE New Services (?) New operation models Digital Mobility Roaming 4+ STDs 2.5G GPRS 3.5G HSPA LTE-A Multi-media CS & PS 2 STDs 5G 1990’s 2000’s 2010’s 2020’s SDR Technology & Standards Evolution 7
  8. 8. New Air Interface (Small Cells) New waveforms New duplexing New MAC Higher order modulation Multi-cell cooperation Interference cancelation / utilization Massive MIMO / Distributed MIMO MU 3D Beam forming Radio Frequency Millimeter wave New licensing regime Licensed & unlicensed band operation Spectrum sharing Indoor-Outdoor operation Cognitive radio and network Opportunistic & adaptive use of resources Spectrum sensing Automated networks/ Plug & play Lower and smarter use of energy Mixed Cell & Het-Net management Centralized RAN / Cloud RAN SW Defined Radio (SDR) & Networks (SDN) Separation of data & control planes Integrated NW (Mobile+ broadcast/multicast) Network sharing Research Challenges For 5G New NW Architecture Intelligent & Adaptive Networks 8
  9. 9. , interference 0 log 1 j k k i i j P C W P N                  Multi-cell Cooperation Coordinated Scheduling 3D Beam forming Higher order modulation More Spectrum Carrier Aggregation Full-duplex radio Cognitive Radio Dynamic Spectrum Sharing Non-orthogonal transmission More Antennas (Large MIMO) Interference cancelation / utilization Higher Capacity to be delivered by a combination of several techniques AND densification of network Focus on area spectral efficacy NOT JUST link spectral efficiency Designed for small Cells (Capacity), extended to coverage More spectrum (Licensed & unlicensed operation, Spectrum sharing AND other sources)  Sub 1GHz for coverage, sub 6GHz as core spectrum AND mmWave (10-100 GHz) for ultra dense access & backhaul Better use of resources (Cloud Radio – Baseband) Designed for Mesh NW, D2D, Self backhauling (devices powerful enough to act as NW nodes) Capacity (New Air Interface ) X10 (Faster than 4G) X100+ (Connections) X1000+ (Capacity) 9 10 100 1000
  10. 10. Quality, Efficiency & Cost TCO OPEX 60% CAPEX 40% Sub 1 ms latency & 99.99% reliability and availability Greener Telecom 10 Super low latency: oFor new services (MTC, gaming, ….) oDistributed control oFaster signaling for higher data rate Super reliable: o For new services and applications o Smart transport, e-health, intelligent control o May need a tradeoffs in capacity, coverage and data rate Greener technology (Energy efficiency) oCurrent 2% ICT share of CO2 emission is likely to raise oPower consumption doubled in past 5 years oMore power efficient HW & SW, oReducing signaling through intelligent O&M and SON oAlternative energy sources Lower CTO Reduced Total Cost of Ownership oFor x1000 do we need to achieve 1/1000 delivery cost per bit? oCost will need to be recalculated as bit/km2 o Saving through energy consumption oSaving through lower cost of operation (plug & play, self managed NW) oSpectrum and infrastructure sharing oLonger HW life cycle time oNew business models (new revenue models)
  11. 11.  3G: Started in 1989, standards in 1999, commercial system in 2003  4G: Started in 2000, standards in 2008, commercial in 2011  5G: Already started, standards in 2017+, commercial readiness in 2020 Cellular standards quick to arrive and slow to leave ~ 10 years between major new standards Average of 20 years from STD to peak deployment 2G in 1990’s, 3G in 2000’s, 4G in 2010’s AND 5G in 2020’s 5G Time Lines 11
  12. 12. Capacity the biggest driver for 5G will not be delivered via one technique but a combination of several techniques  Much denser network and small cells will be a key part of 5G design  NW will need to be designed with future services/application in mind BUT not for particular services Spectrum remains to be the greatest challenge for telecom industry Sharing is a must in 5G – spectrum sharing to be enabled both in terms of technology and also business model  Sharing is good for 5G - greater degree of sharing, site, infrastructure, … (new operation and business models) The shape of NW architecture will need to change – mobile to play a role as NW node (D2D,mesh NW, …) Telecom industry needs to cope with exponential growth phenomenon!  5G success depends not only on the underlying technologies but also in rethinking business models, policies and economics around radio spectrum regulation 12 Concluding Remarks
  13. 13. Thank You

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