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Market Research Report

FTTH Rollouts

Published by IDATE
Published August, 2008 Product code 72286
Content info 50 pages
Price
Not Available

This publication has been discontinued on November 23, 2011.

Introduction

Abstract

For a greenfield FTTH rollout, civil engineering is by far the largest cost item.

Drawing on in-depth knowledge of FTTx cost models, IDATE examines solutions that can help bring down civil engineering costs, based on rollout experiences in the most advanced markets.

Key questions

  • What is civil engineering' s real weight in the equation?
  • Is ensuring access to incumbent carriers' ducts the most promising solution?
  • Can overhead deployment solutions used in the United States and Japan be adapted to Europe ?
  • What are the advantages and drawbacks of lighter civil engineering solutions (e.g. micro-trenches)?
  • Can local authorities help promote large-scale FTTH rollouts in the medium term?
  • Does shared private investment have a future?

Table of Contents

1. FTTH business model: civil engineering' s weight in the equation

  • 1.1. Structure of the FTTx model
  • 1.2. Technical parameters
  • 1.3. The weight of civil engineering in the equation
  • 1.4. Housing structure: France vs. the UK

2. Duct sharing

  • 2.1. Role played by the incumbent carrier
  • 2.2. Technical and regulatory issues
  • 2.3. Case studies
    • 2.3.1. Portugal
    • 2.3.2. France
    • 2.3.3. The Netherlands
    • 2.3.4. Canada
    • 2.3.5. Other OECD countries

3. Aerial deployments: a feasible solution?

  • 3.1. Overhead fibre optic rollouts on electrical networks
    • 3.1.1. A host of parties involved
    • 3.1.2. Technical aspects
    • 3.1.3. Service lines
  • 3.2. Overhead deployments on telecom and cable networks
  • 3.3. Examples of aerial deployments

4. Role played by local authorities

  • 4.1. Coordination of civil engineering works
  • 4.2. Building open access networks
    • 4.2.1. The Swedish example
    • 4.2.2. Elsewhere in Europe...

5. Role played by infrastructure providers and progress made in civil engineering techniques

  • 5.1. Innovative rollout procedures and techniques
    • 5.1.1. The micro-trench technique
    • 5.1.2. Deployment in non-visitable sewers
    • 5.1.3. Example of an innovative solution: Kerb-IT
  • 5.2. Role played by infrastructure owners
    • 5.2.1. Reggefiber
    • 5.2.2. H2O Networks

6. Dark fibre: the Japanese example

7. Bitstream: an ideal solution for reducing alternative operators' civil engineering costs?

8. Last mile: who should pay?

Tables

  • Table 1: The different types of player involved in FTTH
  • Table 2: Size of micro-tubes (mm)

Figures

  • Figure 1: Overall structure of the FTTx model
  • Figure 2: Diagram of the FTTN + VDSL architecture chosen
  • Figure 3: Ethernet point-to-point (P2P) technology
  • Figure 4: GPON technology
  • Figure 5: Cost per home passed of the three architectures in an urban setting
  • Figure 6: Cost per home passed with GPON technology, according to housing structure
  • Figure 7: Variations in the "civil engineering plus optical cable" cost item for a GPON rollout, according to population density (1) (EUR per home passed)
  • Figure 8: Variations in the "civil engineering plus optical cable" cost item for a GPON rollout, according to number of apartment units per building (1) (EUR per home passed)
  • Figure 9: Breakdown of the population by type of housing
  • Figure 10: Operator duct: access chamber
  • Figure 11: Example of the availability of France Telecom ducts in a neighbourhood in the city of Nice
  • Figure 12: Duct shared by several operators
  • Figure 13: Duct occupancy: GPON vs. Ethernet P2P
  • Figure 14: Distance and height rules applied in France
  • Figure 15: Regulation distances for shared support structures
  • Figure 16: NTT branch system for FTTH facilities
  • Figure 17: The Swedish example
  • Figure 18: Chief advantages of micro-trenches
  • Figure 19: Fibre optic deployment in a sewage network from an inspection pit
  • Figure 20: The five stages of a deployment in a sewage network, using the EasyFiber process
  • Figure 21: Connected Real Estate' s Kerb-IT solution
  • Figure 22: Reggefiber footprint in the Netherlands
  • Figure 23: Infrastructure sharing procedure in Japan
  • Figure 24: Dark fibre access procedures in Japan
  • Figure 25: New NTT tariffs for accessing fibre
  • Figure 26: Alternative system requested by KDDI for accessing NTT splitters
  • Figure 27: FTTH bitstream solution being examined in France
  • Figure 28: Ofcom' s reasons for promoting an Ethernet Bitstream offer
  • Figure 29: Estimated added value of an FTTH connection, according to households in the US
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