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Table of Contents

List of Figures

List of Tables

There are two main types of optical communication component attenuators and these are variable and fixed.  Variable Optical Attenuators (manually controlled and electronically controlled VOAs) represented 68 percent of the worldwide consumption (use) value of fiber optic component-type attenuators used in the selected optical communication applications in 2008; However, in 2013 VOAs are forecasted to increase to 77 percent of the relative market share.

ElectroniCast Consultants’ new report provides the historic year of 2008 and a 5-year (2009-2013) forecast of the consumption of fixed (in-line and panel-mount/bulkhead) and variable (manually controlled and electronically controlled) optical attenuators (VOAs), segmented into the following geographic regions: The Americas, EMEA, and APAC), plus Global summaries. The global forecast is also segmented into the following major application categories: Telecommunications, Private Data Networks, Cable TV, Military/Aerospace, and selected Specialty applications.

 The global forecast is also segmented into the following major application categories:

-   Telecommunications
	o   Interexchange
	o   Subocean
	o   Local Exchange
		§  Interoffice
		§  Local Loop
			·         Feeder
	o   Alternate Local Carrier
	o   Installation Apparatus
-   Private Data Networks
-   Cable TV
	o   Trunk & Supertrunk
	o   Installation Apparatus
-    Military/Aerospace
-    Specialty

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Table of Contents

1.	Executive Summary
1.1	Overview
1.2	Optical Fiber Amplifier & DWDM Component Overview
1.3	Private Data Communication networks
1.4	Broadband and Fiber to the Premise Overview
1.5	Fiber Optics Industry: Decade-to-Decade
2.	Fiber Optic Attenuator Market Forecast
2.1	Fiber Optic Attenuators Market by Type
2.2	Fiber Optic Attenuator Technology Review
2.3	Fiber Optic Attenuators By End-User (Application)
3.	Optical Communication Trends
3.1	Overview
3.2	Fiber Network Technology Trends
3.3	Components
3.3.1	Overview
3.3.2	Transmitters and Receivers
3.3.3	Optical Amplifiers
3.3.4	Dispersion Compensators
3.3.5	Fiber Cable
3.4	Devices and Parts
3.4.1	Overview
3.4.2	Emitters and Detectors
3.4.3	VCSEL & Transceiver Technology Review
3.4.4	Optoelectronic Application-Specific Integrated Circuits
3.4.5	Modulators
3.4.6	Packages
3.4.7	Optoelectronic Integrated Circuits
4.	Fiber Optic Attenuator Competition
4.1	List of Selected Fiber Optic Attenuator Competitors
4.2	Market Share Estimates: Fiber Optic Attenuators
5.	Market Research Methodology
5.1	Research and Analysis Methodology
5.2	Assumptions of the Fiber Optic Attenuator Global Market Forecast
6.	Definitions: Acronyms, Abbreviations, and General Terms
7.	Fiber Optic Attenuator Market Forecast Data Base
7.1	Overview
7.2	Tutorial
Market Forecast Data Base – Excel Spreadsheets:
	Global
	The Americas
	EMEA
	APAC
Bar Charts – PowerPoint Slides

                       

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List of Figures

1.1.1	Optical Attenuators Global Forecast, By Type (Value Basis, $Million)
1.1.2	EVOA Global Consumption Value Market Forecast ($, Million)
1.1.3	Optical Fiber Amplifier Performance Trends
1.1.4	Fiber Optic Attenuator Global Consumption Value, By Region ($, Million)
1.1.5	Fiber Optic Attenuator Global Consumption Value, By Application ($, Million)
1.2.1	OADM Filter Typical Response Characteristics
1.2.2	Thin Film Interference Filter
1.2.3	Light Power Output of Successive Wavelengths, Thin Film Filter
1.2.4	Thin Film DWDM Filter Modified Architecture For High Wavelength Counts
1.2.5	AWG DWDM Filter
1.2.6	Diffraction Grating DWDM Filter
1.2.7	Next Generation’s UDWDM 2500 Channel Filter Module
1.3.1	Typical Gigabit Product Deployment
1.3.2	TIA-942 Standard: Basic Data Center Topology
1.4.1	Access Network Elements
1.4.2	Fiber-to-the-Office Forecast Structure
1.4.3	Cogent Communication’s Multi-National IP Network
1.4.4	Broadband-to-the-Premise
1.4.5	Fully Reconfigurable OADM
1.4.6	FTTU-PON System
1.4.7	FTTP PON Architecture
1.5.1	Evolution of Research Emphasis during Technology Life Cycle
1.5.2	Evolving to the All-Optical Network
1.5.3	AON – Technology Demonstration Roadmap
1.5.4	AON – Test-bed Network Platform
2.2.1	DuPont Photonics Technologies’ VOA 40-Channel Device
2.2.2	Lightconnect’s FVOA Series 5000 (Neophotonics)
2.2.3	Lightconnect’s Array VOA (Neophotonics)
2.2.4	Manually Variable Fiber Optic In-Line Attenuator (OZ Optics)
2.2.5	OZ Optics’ Bluebird MEMS VOA
2.2.6	Singlemode Linear Variable Attenuator-MLVA (Amphenol)
2.2.7	Mechanical Optical Variable Attenuator-MOVA (JDSU)
2.2.8	Miniature Fiberoptic Variable Attenuator (MFVA)-DiCon Fiberoptics
2.2.9	Dicon’s MEMS Variable Attenuator
2.2.10	Electronic Variable Optical Attenuator (Bookham Inc)
2.2.11	Integration vs Discrete Solutions (Bookham Inc)
2.2.12	Multiplexer and Variable Optical Attenuator
2.2.13	8-Port Waveguide VOA Assembly/Structure (NEL)
2.2.14	NeoPhotonics PLC Variable Optical Attenuator
2.2.15	Attenuator Array (AVOA) Liquid Crystal VOA (Source: Lightwaves2020)
2.3.1	Optical Attenuators Global Forecast, By Application (Value Basis, $Million)
2.3.2	Optical Attenuators Global Forecast, By Telco Application ($Million)
2.3.3	Optical Attenuators North American Forecast, By Application ($Million)
2.3.4	Optical Attenuators North American Forecast, By Telco Application ($Million)
2.3.5	Optical Attenuators European Forecast, By Application ($Million)
2.3.6	Optical Attenuators European Forecast, By Telco Application ($Million)
2.3.7	Optical Attenuators (APAC) Forecast, By Application ($Million)
2.3.8	Optical Attenuators (APAC) Forecast, By Telco Application ($Million)
3.2.1	Network Bandwidth Expansion Alternatives
3.2.2	Xanoptix Multifiber Transmitters
3.2.3	Flexible Optical Backplane
3.4.3.1	Genealogy of VCSELs
3.4.3.2	New Focus 10 Gbps VCSEL Optical Subassembly
3.4.3.3	4 x 3.125 Gbps WWDM SFF Transceiver Concept
3.4.3.4	Assembled Non-Functional 4 x 3.125 Gbps WWDM SFF Concept Module
3.4.3.5	WWDM Transceiver, Transmit Side Optical Combiner
3.4.3.6	WWDM Demultiplexing Subassembly
3.4.3.7	CWDM VCSEL Transceiver (8-wavelength diagram)
3.4.3.8	4-Channel VCSEL Transceiver
3.4.3.9	Corona Optical Systems (EMCORE Corporation) OptoCube 40
3.4.3.10	Array VCSEL Interconnects between Cabinets or Racks
3.4.3.11	12 x 2.5 Gbps VCSEL Transceiver Package
3.4.3.12	Pre-terminated Ribbon Cable Assembly
3.4.3.13	Optical Backplane Implementation
3.4.3.14	Typical Intra-Office Interconnections
3.3.3.15	12 Fiber VSR Architecture
3.4.3.16	Converter ASIC Function
3.4.3.17	12-Fiber VSR Module vs. OC-192 SONET Line Card
3.4.3.18	4 Fiber VSR Architecture
3.4.7.1	Trend of Transceiver Packaging Density, Gigabits/Cubic Inch
3.4.7.2	Xanoptix 32x32 Datacom Transceiver
3.4.7.3	Bookham Integrated Transceiver Silicon Waveguides
5.1.1	Market Research & Forecasting Methodology

                   

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List of Tables

1.1.1	Global Fiber Optic Attenuator Consumption Forecast, by Type (Value Basis, $Million)
1.2.1	WDM Filter Technologies Comparison
1.3.1	Ethernet Standards Suite
1.3.2	IEEE Distance Specifications for Fiber-Optic Ethernet by Fiber Type
1.3.3	Migration or Upgrade Scenarios to Gigabit Ethernet
1.4.1	Minimum & Ideal Speeds Necessary for Popular Applications
1.4.2	Selected PON Comparison
1.4.3	Latin American Demographic Trends
2.1.1	Global Fiber Optic Attenuator Consumption Forecast, by Type (Value Basis, $Million)
2.1.2	Global Fiber Optic Attenuator Consumption Forecast, by Type (Quantity Basis, K)
2.1.3	Global Fiber Optic Attenuator Consumption Forecast, by Type (ASP per unit, $ each)
2.1.4	The Americas Fiber Optic Attenuator Consumption Forecast, by Type ($Million)
2.1.5	The Americas Fiber Optic Attenuator Forecast, by Type (Quantity Basis, K)
2.1.6	The Americas Fiber Optic Attenuator Forecast, by Type (ASP per unit, $ each)
2.1.7	EMEA Fiber Optic Attenuator Consumption Forecast, by Type ($Million)
2.1.8	EMEA Fiber Optic Attenuator Forecast, by Type (Quantity Basis, K)
2.1.9	EMEA Fiber Optic Attenuator Forecast, by Type (ASP per unit, $ each)
2.1.10	APAC Fiber Optic Attenuator Consumption Forecast, by Type ($Million)
2.1.11	APAC Fiber Optic Attenuator Forecast, by Type (Quantity Basis, K)
2.1.12	APAC Fiber Optic Attenuator Forecast, by Type (ASP per unit, $ each)
2.2.1	Variable Optical Attenuator Array Product Specifications
4.2.1	2007 Market Share Estimate Fiber Optic Attenuators (Consumption-Based)
7.1.1	Fiber Optic Attenuator Data Base (Excel Spreadsheets) Product Categories
7.1.2	Fiber Optic Attenuator Data Base (Excel Spreadsheets) Application Categories

                                      

 

 

(日本語訳-2)

光ファイバー減衰器の世界市場予測 2008-2013年 

カリフォルニア州アッパーレイク、2009年2月24日
光ファイバー通信市場と技術に関する予測やコンサルティングを行う米国の専門調査会社エレクトロニキャスト社は、コンポーネント/モジュールタイプの光ファイバー減衰器の世界市場の消費と技術傾向を予測・分析した調査レポート「光ファイバー減衰器の世界市場予測 2008-2013年」を出版した。

光通信コンポーネントの減衰器には主に、可変と固定の2種類がある。主に電子制御による可変光減衰器(VOA)は、2008年の世界の光ファイバーコンポーネントタイプの減衰器の消費(利用)の68％を占めている。しかし、2013年には、77％となるだろう。(図を参照)

(後略)

(原文-2)

Fiber Optic Attenuator Global Market Forecast (2008-2013)

Upper Lake, CA (USA) – February 24, 2009 
ElectroniCast Consultants, a leading market & technology forecast consultancy addressing the fiber optics communications industry, today announced the release of a new market forecast and analysis of the global market consumption and technology trends of fiber optic component/module type attenuators.

There are two main types of optical communication component attenuators and these are variable and fixed. Variable Optical Attenuators (manually controlled and electronically controlled VOAs) represented 68 percent of the worldwide consumption (use) value of fiber optic component-type attenuators used in the selected optical communication applications in 2008; However, in 2013 VOAs are forecasted to increase to 77 percent of the relative market share. SEE DATA FIGURE 

“Network system planners can make adjustments for non-uniform signal power with amplifier/attenuator combinations,” said Stephen Montgomery, president for Asia Pacific at ElectroniCast Consultants and the director of the study program. “Through careful and calculated planning, network engineers can place attenuators within the optical system; thereby having the capability of balancing and fine-tuning individual channels to create an optimal link,” Montgomery said.

ElectroniCast Consultants’ new report provides the historic year of 2008 and a 5-year (2009-2013) forecast of the consumption of fixed (in-line and panel-mount/bulkhead) and variable (manually controlled and electronically controlled) optical attenuators (VOAs), segmented into the following geographic regions: The Americas, EMEA, and APAC), plus Global summaries. The global forecast is also segmented into the following major application categories: Telecommunications, Private Data Networks, Cable TV, Military/Aerospace, and selected Specialty applications.

Explanation Of Market Data Figure (above)
Variable Optical Attenuators (manually controlled and electronically controlled VOAs) represented 68 percent of the worldwide consumption (use) value of fiber optic component-type attenuators used in the selected optical communication applications in 2008, according to a study just-completed by ElectroniCast Consultants. However, in 2013 VOAs are forecasted increase to 77 percent of the relative market share.

(日本語訳-1)

光ファイバー減衰器の世界市場予測 2006-2012年

カリフォルニア州アッパーレイク、2008年8月4日
光ファイバー通信市場と技術に関する予測やコンサルティングを行う米国の専門調査会社エレクトロニキャスト社は、2008年の第2回目となる、コンポーネント/モジュールタイプの光ファイバー減衰器の消費と技術傾向を予測・分析した調査レポート「光ファイバー減衰器の世界市場予測 2006-2012年」を出版した。光ファイバー減衰器の世界の消費金額は、2007年に約9％上昇して1億3600万ドルに達するだろう。また、世界の出荷数と平均価格(ASP)の予測も記載している。

この調査レポートは、固定(インラインとパネルマウント/バルクヘッド)と可変(手動制御と電子制御)の光減衰器(VOAとEVOA)の2006-2007年の実績数値と、2008-2012年の5年間予測を提供している。「ソリッドステート減衰器は、様々な技術で電子制御されている。最速の調整速度や不断のインライン調整などの利点はあるものの、EVOAはコストや同調回路の電力ロスの場合にゼロ減衰にリセットするなどの不都合もある」と、エレクトロニキャスト社のアジア太平洋地域の社長Stephen Montgomery氏は語る。

リモートコントロールなどの電子制御減衰器(EVOA)の世界の消費金額は、2006年に6550万ドル、2007年に7270万ドルに達した。2012年のEVOAの消費値は、1億5340万ドルに達するとエレクトロニキャスト社は予測している。 (図1を参照)

Figure 1 EVOA Global Consumption Value Market Forecast ($, Million) Source: ElectroniCast Consultants

(原文-1)

Fiber Optic Attenuator Global Market Forecast (2006-2012)

Upper Lake, CA (USA) – August 4, 2008
ElectroniCast Consultants, a leading market & technology forecast consultancy addressing the fiber optics communications industry, today announced the release of the second-of-two studies, in 2008, reporting their market forecast and analysis of the global market consumption and technology trends of fiber optic component/module type attenuators. ElectroniCast estimates the worldwide consumption value of fiber optic attenuators will reach $136 million, an increase of nearly 9 percent over 2007. ElectroniCast’s global forecast of fiber optic attenuators, in terms of the number of units (quantity/each) and average selling prices (ASPs) are also presented.

This report provides the historic year of 2006 and 2007 and a 5-year (2008-2012) forecast of the consumption of fixed (in-line and panel-mount/bulkhead) and variable (manually controlled and electronically controlled) optical attenuators (VOAs and EVOAs). “Solid-state attenuators are electronically controlled with various technology methods,” said Stephen Montgomery, president of ElectroniCast Asia-Pacific (APAC). “Advantages include the fastest tuning speed and uninterrupted inline adjustment; however, the EVOA disadvantage includes cost and possibly a design that resets to zero attenuation in the event of a power loss to the tuning circuit,” Montgomery said.

In 2006, electronically controlled (including remotely controlled) variable optic attenuators (EVOAs) reached a global consumption value of $65.5 million and $72.7 million last year (calendar year 2007). By year 2012, the consumption value of EVOAs is forecasted to reach $153.4 million. (See Figure 1)

Figure 1 EVOA Global Consumption Value Market Forecast ($, Million) Source: ElectroniCast Consultants