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市場調查報告書
LTE：市場藍圖・預測（至2015年）
LTE: the compelling answer? - Roadmap and Forecasts up to 2015
| 出版商 |
IDATE |
| 出版日期 |
2009年07月 |
商品編碼 |
92158 |
| 內容資訊 |
英文 75 pages |
| 價格 |
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LTE：市場藍圖・預測（至2015年） 是由出版商IDATE在2009年07月所出版的。
這份英文市場調查報告書包含75 pages 價格從美金3500起跳。
Abstract
This report provides a complete analysis of the (Long Term Evolution)
perspective as the next step towards 4G and real mobile broadband networks. It
presents an in-depth analysis of LTE deployment strategies through the
elaboration of original cost model. This study presents roadmap scenarios and
forecasts up 2015. It also assesses impact of LTE take-up on the overall
mobile ecosystem.
Key questions
- What is the cost of deploying LTE?
- Which type of operator benefits the most?
- What are the regulatory constraints for LTE deployment?
- What are the LTE commercial deployments scheduled by Tier1 operators?
- How could LTE accelerate the development of new popular solutions such as
Mobile VoIP, or FMC?
- Could LTE accelerate the consolidation of the mobile market?
Table of Contents
1. Executive Summary
- 1.1. The roadmap and forecasts
- 1.2. Modelling the business cases
- 1.3. Regulations and technicalities
2. Methodology
- 2.1. Market assessment and forecasts
- 2.2. Presentation of LTE deployment model
3. The grand LTE roadmap
- 3.1. A healthy ecosystem
- 3.2. Commercial launch scheduled for 2010
- 3.3. Devices roadmap
- 3.4. LTE adoption forecasts, by region
4. What is the cost of LTE deployment?
- 4.1. Scenario of reference: LTE overlay
- 4.2. Base case results: 2.1 billion EUR over seven years for 50 million
population, 75% coverage
5. Which type of operator benefits most?
- 5.1. LTE: where the integrated operator is winner
- 5.2. Deployment cost of a greenfield operator
6. LTE: just for urban hotspots, or wider?
- 6.1. LTE coverage trends
- 6.2. LTE cost of deployment by population coverage
- 6.3. Enabling LTE in rural areas: deployment in lower frequency band
7. How to enhance and monetise the service experience: the VoLTE and smart pipe model
- 7.1. VoIP: LTE set to change operator perceptions
- 7.2. LTE enhances the mobile experience
- 7.3. LTE smart pipe: operators leverage their central position
8. Which regulatory constraints for LTE deployment?
- 8.1. The telecom and Internet regulation review
- 8.2. Restrictions applied to base stations
- 8.3. Request for more spectrum, less regulation
9. LTE accelerates the consolidation of the mobile market
- 9.1. Accelerating the trend towards Fixed Mobile Convergence
- 9.2. LTE strengthens the case for network sharing
- 9.3. LTE drives partnerships in the mobile sector
10.LTE spectrum: impact on roadmap and costs
- 10.1. Potential frequency bands: 2G, 3G bands and more
- 10.2. FDD vs. TDD: paired spectrum still dominant but TDD operations
gaining ground
- 10.3. Roadmap for awards of LTE spectrum licences
- 10.4. Cost of LTE frequencies
11.LTE key technological features
- 11.1. OFDMA and spectrum flexibility
- 11.2. FDD and TDD convergence
- 11.3. Evolved Packet Core architecture
Tables & figures
- Table 1: LTE CapEx for base case scenario
- Table 2: Selected constraints for LTE deployment in France, Germany, UK
and Switzerland
- Table 3: Estimates of LTE spectrum value in Western Europe
- Table 4: Area, population and density of base case scenario
- Table 5: LTE CapEx for base case scenario
- Table 6: Sensitivity analysis for level of mast sharing
- Table 7: LTE adoption: advantages and drawbacks for various operator types
- Table 8: LTE investment for different coverage levels for a deployment in
the band 2.6 GHz
- Table 9: LTE investment for different coverage level for an urban and
suburban deployment in the band 2.6 GHz and a rural deployment in the band
790-862 MHz
- Table 10: Services enhanced by LTE
- Table 11: Power limits to limit electromagnetic exposure set by the WHO
- Table 12: Selected constraints for LTE deployment in Germany, UK, France
and Switzerland
- Table 13: The full list of signatories of the GSMA letter
- Table 14: LTE frequency bands by geographical area
- Table 15: Main frequency bands for UMTS/HSPA deployment - FDD mode
- Table 16: Main frequency bands for UMTS/HSPA deployment - TDD mode
- Table 17: TDD and FDD mode advantages and drawbacks
- Table 18: Situation of the 2.5-2.69 GHz band
- Table 19: Date of availability of LTE spectrum
- Table 20: Swedish 2.6 GHz auctions results
- Table 21: Summary of US 700 MHz auctions
- Table 22: Estimates of LTE spectrum value in Western Europe
- Table 23: Technological comparison of mobile broadband technologies
- Figure 1: Global LTE adoption forecast (End-2012 to end-2015)
- Figure 2: Major operators LTE commercial deployment schedule
- Figure 3: Geographical mapping of early LTE commercial deployment
- Figure 4: LTE devices roadmap
- Figure 5: Influence of the Vodafone, China Mobile and Verizon Wireless
partnership over LTE ecosystem
- Figure 6: LTE investment breakdown for base case scenario
- Figure 7: Options for carrier upgrades to LTE depending on technology
deployed
- Figure 8: Network cost model calculation of RAN elements needed for LTE
coverage
- Figure 9: Equipment vendors supporting the LTSI and/or NGMN Alliance
- Figure 10: Mobile operators supporting the LTSI and/or NGMN Alliance
- Figure 11: Major operator LTE commercial deployment schedule
- Figure 12: Geographical mapping of early LTE commercial deployment
- Figure 13: LTE devices roadmap
- Figure 14: Global LTE adoption forecast (End-2012 to end-2015)
- Figure 15: LTE adoption forecast for Japan and South Korea (End-2012 to
end-2015)
- Figure 16: LTE adoption forecast for China (End-2012 to end-2015)
- Figure 17: US subscribers by technology
- Figure 18: LTE adoption forecast for USA (End-2012 to end-2015)
- Figure 19: LTE adoption forecast for the EU5 and Scandinavia (End-2012 to
end-2015)
- Figure 20: Cumulated population and area in selected European countries
- Figure 21: Subscribers with LTE-enabled handset
- Figure 22: Handset mix among subscriber base
- Figure 23: Global mobile data and mobile Internet monthly traffic, per
service type
- Figure 24: Average monthly usage per subscriber
- Figure 25: UMTS/HSPA and LTE population coverage over time
- Figure 26: Backhaul capacity required per cell site
- Figure 27: Backhaul technology breakdown in 2008
- Figure 28: LTE investment breakdown for base case scenario
- Figure 29: Sensitivity of RAN investment to mast sharing level
- Figure 30: LTE gradual deployment timeline for an average Western Europe
MNO
- Figure 31: LTE RAN investment according to population coverage - 2.6 GHz
band
- Figure 32: Comparison of LTE RAN investment - rural population coverage
with 800 MHz and 2.6 GHz spectrum
- Figure 33: LTE investment per inhabitant for various LTE spectrum scenarios
- Figure 34: LTE adoption drivers, service innovation and business models
- Figure 35: VoIP competitiveness compared to MNO offers
- Figure 36: ARPU trends
- Figure 37: Power limits applied in Europe
- Figure 38: The case for 2.6 GHz LTE Femtocells
- Figure 39: UMTS network and potential sharing
- Figure 40: Influence of the Vodafone, China Mobile and Verizon Wireless
partnership over LTE ecosystem
- Figure 41: Partnerships between vendors targeting LTE Japanese market
- Figure 42: Vendors selected by Verizon Wireless for LTE deployment
- Figure 43: Situation of the 698-960 MHz band after WRC-07
- Figure 44: TDD and FDD developments
- Figure 45: Digital dividend timetable in Europe
- Figure 46: Description of OFDM
- Figure 47: Options for carrier upgrades to LTE depend on technology
deployed
- Figure 48: FDD and TDD duplex both supported by LTE
- Figure 49: The simplified LTE architecture
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