Future Standardization

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Transcription:

TD-LTE s Requirements on Future Standardization

Outline TD-LTE Deployment in China Vision for Beyond R12 Challenges and Requirements Summary 2

TD-LTE Trial in China: Overview 2011 2012H1 2012H2 2013 Large Scale Trial today Pre-commercial Deployment Commercial Deployment 6 cities, >1000 BS s 11infrastructure and 11 chipset vendors involved Verification of technologies, products, networking solutions 13 cities, 20k BS s Friendly users and services introduced Major cities, 200k BS s Commercial operation Spectrum 2320MHz~2370MHz (indoor only), 2570MHz~2620MHz, 1880MHz~1915MHz 3

Large Scale Trial: in 6 Cities, 11+11 Vendors Participating LST Pre Com Com. Com. Cities Guangzhou, Hangzhou, Nanjing, Shanghai, Shenzhen, Xiamen Add up to 83 Million of population Participants Nanjing Shanghai 3 Operators 11 Infrastructure Vendors 11 Chipset Vendors Hangzhou Xiamen Guangzhou Shenzhen 4

Pre-commercial Deployment: Works on networks, terminals and services LST Pre Com. Com. Networks Construction: the network in 13 cities with 20k base stations will be completed by the end of the year. Cities: Beijing, Shanghai, Hangzhou, Guangzhou, Shenzhen, Tianjin, Nanjing, Qingdao, Xiamen, Shenyang, Ningbo, Chengdu, Fuzhou Coverage: 90% urban area will be covered in Hangzhou / Guangzhou / Shenzhen the 3 major cities. Terminals Services Types: Mainly multi-mode data cards, CPEs and MiFi terminals. Volume: About 30k terminals will be purchased and distributed to friendly users by the end of this year. Mobile internet services. SMS on LTE. Intra- and inter-national national roaming, including LTE TDD/FDD global roaming 5

Commercial Rollout of TD-LTE in China LST Pre Com. Com. 2013 Major cities 200,000+ BS 300M population Commercial multi mode terminal, smartphone Converged LTE TDD/FDD enables global roaming, 40MHz Aggregation with Maximum 220Mbps 6

Vision for Beyond R12 Socialization Localization Cloud Green Automatic Wireless World High Efficiency Informatization

Outline TD-LTE Deployment in China Vision for Beyond R12 Challenges and Requirements Summary 8

1. Traffic grows explosively but not the revenue Mobile data traffic will increase Profit per bit will continuously 1000 times in 10 years decrease in the future years Extremely low cost network is expected: deployment and maintenance 9

2. Traffic distribution appears as unbalanced Imbalance between the terminal type: in 2010, smart phone s global penetration rate is 13%, while it contribute 78% traffic load from the terminal Geographic imbalance: in 2009, more than 50% mobile service happened at home/office; while this percentage is 63% in China. Most of the data service happens in low mobility indoor and dense urban Home access Internet Office access Internet On-road access Internet USA 37.8% 19.6% 42.6% UK 45.6% 17.8% 36.6% Germany 43.4% 15.3% 41.3% France 33.1% 21.7% 45.2% Italy 39.6% 21.4% 39.0% South Africa 48.6% 21.4% 30.0% Mexico 28.2% 2% 27.6% 44.2% Brazil 36.7% 24.7% 38.6% Korea 33.7% 31.7% 34.6% India 45.9% 30.4% 23.7% China 30.1% 32.7% 37.2% 10

3. Spectrum has been fragmented and used up 11

4. Power consumption plays an important role in OPEX Surging power consumption High CAPEX/OPEX of RAN result from BS equipment room The majority of power consumption from RAN 12

Requirements for Beyond R12 Localization Informatization Socialization Cloud Green 1010 010101 Efficiency Automatic 13

Socialization Direct communication between devices Autonomous device discovery Lower power consumption Overhead reduction Flexible mesh network Where areyou? Live video Radio music Mobile paper Traffic condition Emergency message Media broadcast service Colorful traffic provision Capacity improvement 14

Localization The Macro Technology extended to Hotspot Technology Extend network capacity, e.g., hotspot, capacity expansion. Provide high user experience for local accessed users Localization growing path for Macro technology Evolution Path Revolution Path Potential ti impact New spectrum usage, e.g., 3.5GHz? New network architecture for small cells? Wireless Wide area networks Cell size 10 4 m 10 3 m Wireless Local Area Networks 10 2 m Network capacity 10m Revolution New air-interface for hotspot UE New network architecture Macro Macro+Hotspot Evolution Hotspot UE backward compatible with Macro Small enhancement of network architecture 15

Informatization Monitoring Intelligent Elevator Smart home Medical Intelligent traffic Smart Grid Ubiquitous Access for Internet of Things Agriculture 16

Cloud Cloud Radio Access Network Beyond cellular generation On-off small cells /APs C/U decoupling UL/DL decoupling 17

High Efficiency Make full use of available spectrum TDD & FDD synchronized & harmonized Technical evolution Time-domain improvement - spectrum efficiency of radio transmission would be improved Spatial-domain improvement - Network level improvement, e.g., spatial reuse by 3D MIMO. Frequency-domain improvement - Aggregate of more carriers. Technical revolution 100% 70Mbps (100%) 2x2MIMO, conf.1, CFI=3, DwPTS=10 109.5% 126% 173% 80Mbps (+9.5%) Reduced 2-port CRS overhead 92Mbps (+15%) Only 1 OFDM reserved every 5 ms 126Mbps (+37%) Maximum 4 DL subframe every 5ms Link-level improvement More efficient radio transmission. 230% 168Mbps (+33%) Improved 33% SE compared to 64QAM 1150% 838Mbps (+400%) Carrier aggregation with 5 CCs 3D MIMO Create more dimension for user to reuse spatial domain resources 18

Automatic Self Planning Self Healing Self Maintenance Self Optimizing Self Configuring 19

Green Ultra low power consumption with guaranteed experience Smart power saving for Radio Access Network Magnificent power efficiency in the network infrastructure Intelligent options for reducing operators OPEX 20

Summary 21

Thank you