Identify Where the Key Opportunities for Optical Networking Component Makers Will Be Found in the Next Few Years.DUBLIN, Ireland -- Research and Markets (http://www.researchandmarkets.com/reports/c50953) has announced the addition of Optical Components Markets: 2007-Vol 1 to their offering. The long-promised transition of optical networking Communications between computers, telephones and other electronic devices using light. An optical network is far more reliable and has far greater potential transmission capacity than networking in the electrical domain. See optical fiber. is taking place. In the public networks, 40 Gbps SONET/SDH is becoming the upgrade technology of choice for many carriers. Ethernet is being overhauled by the IEEE (Institute of Electrical and Electronics Engineers, New York, www.ieee.org) A membership organization that includes engineers, scientists and students in electronics and allied fields. to become a 100 Gbps network. Fiber-to-home now has a solid business model behind it. Meanwhile, WDM (1) (Wavelength Division Multiplexing) A technology that uses multiple lasers and transmits several wavelengths of light (lambdas) simultaneously over a single optical fiber. is of ever growing importance, not just in the network itself, but as a core technology in transmission modules of all kinds. And the point-the-point optical networks that have dominated until now are being transformed into agile networks mediated by ROADMs. All this means that component makers have more opportunities than they have had for years. Succeeding in the components market is no longer just a matter of low prices and meeting the required specs. Instead, there are opportunities to create genuinely innovative products that fit in with emerging standards and networking trends, yet are also quite distinctive in the marketplace. This report discusses where the key opportunities for optical networking component makers will be found in the next few years. It focuses especially on the components that will be needed in the latest high speed networks and on important technology directions including optical integration, high-speed laser modulation, tunable components and dispersion control. Included in this report is a detailed analysis of the strategies being adopted by both large component firms and start-ups to take advantage of the next wave in networking. As with all our reports, this study also includes a detailed five-year forecast of the markets covered. Topics Covered EXECUTIVE SUMMARY E.1 Current and future market environment for the optical components business E.2 Summary of emerging opportunities in optical telecom components E.2.1 Active components E.2.2 Passive components E.3 Implications for networking electronics E.3.1 PHYs, PMDs and MACs E.3.2 NPUs E.3 Firms to watch E.4 Summary of five-year forecasts CHAPTER ONE: INTRODUCTION 1.1 Background to report 1.2 Objective and scope of report 1.3 Methodology and information sources for report 1.4 Plan of report CHAPTER TWO: NETWORKING TRENDS: IMPACT ON COMPONENT TECHNOLOGIES 2.1 Introduction 2.2 Fiber-to-the-x and PONs 2.3 Optical networking in the corporation 2.3.1 10 GigE to the server and beyond 2.3.2 Fibre Channel at 8 Gbps and 16 Gbps 2.4 Optical networking in the public network 2.3.3 The revival of 40 Gbps SONET/SDH 2.3.4 WDM, agile networks and the coming OTN OTN Oracle Technology Network OTN Optical Transport Network (Cienna) OTN On The Net OTN Open Transport Network (Apple) OTN Oncology Therapeutics Network OTN On That Note OTN Optical Network Terminal 2.4 100 GigE 2.5 MSA (Metropolitan Service Area) An urban area with at least 50,000 people plus surrounding counties. There are 306 MSAs and 428 RSAs (rural service areas) in the U.S. MSAs and RSAs are used to allocate cellular licenses. trends CHAPTER THREE: TECHNOLOGY AND COMPONENT TRENDS 3.1 Introduction 3.2 Silicon photonics See integrated optics. and optical integration 3.2.1 Commercialization potential of silicon photonics 3.2.2 Other approaches to optical integration 3.2.3 Integrated laser and detector array products 3.2.4 Multi-functional integrated devices and integrated transceivers 3.3 New directions for fixed lasers, detectors and modulators 3.3.1 Diplexers and triplexers (and splitters) for PONs 3.3.2 The new parallel optics 3.3.3 High-speed modulation and modulators 3.3.4 Lasers and detectors for environments beyond 10 Gbps 3.3 The Renaissance of tunability 3.3.1 Tunable laser A laser that can change its frequency over a given range. In time, tunable lasers are expected to be capable of switching frequencies on a packet by packet basis. technology and commercialization 3.3.2 Tunable detector technology and commercialization 3.3.3 Tunable filter technology and commercialization 3.4 Dispersion compensation 3.4.1 DCF DCF See: Discounted Cash Flows and DCMs 3.4.2 EDC EDC See: Export Development Corp. for the long-haul and the short haul Short distance. Short haul implies traversing a small geographic area such as a few miles at most. Contrast with long haul. See line driver. 3.5 ROADM ROADM Reconfigurable Optical Add/Drop Multiplexer ROADM Reconfigurable Add Drop Multiplexing technologies CHAPTER FOUR: MARKET ANALYSIS BY PRODUCT AND FIVE-YEAR MARKET FORECAST 4.1 Forecasting methodology 4.2 Fixed lasers, integrated transceivers and laser arrays 4.3 Tunable lasers 4.4 Receivers and detectors 4.5 Dispersion compensation devices 4.6 WDM components 4.7 ROADMs and switches For more information visit http://www.researchandmarkets.com/reports/c50953. |
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