News Article | April 26, 2017
Sarasota, FL, April 26, 2017 (GLOBE NEWSWIRE) -- Zion Market Research, the market research group announced the analysis report titled "Fiber Optics Market for Telecom & Broadband, Healthcare, Defense, Private Data Networks, and Other Applications: Global Industry Perspective, Comprehensive Analysis, and Forecast, 2016-2022". The study concludes that the global fiber optics market is expected to grow at a CAGR of 5.2% between 2017 and 2022. The market revenue of $2.75 billion in 2016 is expected to grow up to $3.72 billion by 2021. Fiber optics is mainly used for digital transmission of data and is increasingly being used in place of metal wires due to its efficiency and high transmission capacity. Fiber optic cables provide an effective transmission as they are less affected by internal and external interferences. The transmission can be done by single and multi-mode fiber depending on the communication requirements. Fiber optics support remote sensing technique which allows data transmission without any physical medium. This technique helps to communicate with even remote and inaccessible regions. Browse through 8 Market Tables and 17 Figures spread through 110 Pages and in-depth TOC on “Global Fiber Optics Market: Type, Application, Size, Share, Statistics, Outlook, Analysis, Segment and Forecast 2016 – 2022”. The growth of the fiber optics market is mainly driven by increasing awareness about data security concerns and use of the alternative raw material. In addition, growing demand for the smartphone which uses optical fiber for LED light is spurring demand of fiber optics market. The fiber can carry light from the one place to a remote place whereas it can be used for taking the heat away from light or allowing a single large light to be divided into tiny points of light smaller than any light source alone. Therefore it can be used in museums, galleries and architecture/design. However, the high initial cost is considered as the key hurdle for the growth of fiber optics market. On the basis of application, the fiber optic market is segmented into telecom & broadband, healthcare, defense, cable television, private data networks, and others. Telecom sector is witnessing highest growth and expected to maintain healthy growth over the forecast period. Browse the full "Fiber Optics Market for Telecom & Broadband, Healthcare, Defense, Private Data Networks, and Other Applications: Global Industry Perspective, Comprehensive Analysis, and Forecast, 2016-2022" report at https://www.zionmarketresearch.com/report/fiber-optics-market North America held the largest share in fiber optics market in 2016. Asia Pacific is expected to flourish growth of fiber optics market in coming years due to technological advancement in the telecom sector. Economically emerging countries in Asia-Pacific such as India, Japan, and China are heavily investing in ICT sector which will prompt demand of fiber optics market. Inquire more about this report before purchase @ https://www.zionmarketresearch.com/inquiry/fiber-optics-market The leading players in the fiber optics market are Sterlite Technologies Limited, Australian Fibreoptic Communications, Finolex Cable Limited, Ofs Fitel, Corning Inc., Fujikura Limited, Yangtze Optical Fiber and Cable Co. Ltd., Prysmian SpA, and others. However, high initial investment and maintenance cost may restrict entry of new players in the fiber optics market. The report segments global fiber optics market as follows: Zion Market Research is an obligated company. We create futuristic, cutting edge, informative reports ranging from industry reports, company reports to country reports. We provide our clients not only with market statistics unveiled by avowed private publishers and public organizations but also with vogue and newest industry reports along with pre-eminent and niche company profiles. Our database of market research reports comprises a wide variety of reports from cardinal industries. Our database is been updated constantly in order to fulfill our clients with prompt and direct online access to our database. Keeping in mind the client’s needs, we have included expert insights on global industries, products, and market trends in this database. Last but not the least, we make it our duty to ensure the success of clients connected to us—after all—if you do well, a little of the light shines on us.
News Article | April 18, 2017
DUBLIN--(BUSINESS WIRE)--Research and Markets has announced the addition of the "Optical Fiber Market to 2025 - Global Analysis and Forecasts by Types and End-user" report to their offering. The global optical fiber market is estimated to grow at a CAGR of 11.7% during the forecast period 2016 - 2025 and accounts for US$ 27.88 Bn in the year 2025. One of the prime factors that are driving the demands for optical fiber cables is the growing needs for fast and improved networking and network services and growing penetration of broadband connections among developed and developing countries. Governments of various countries worldwide have laid their stress on the reach of high speed internet services in urban and rural areas of their countries. A fiber optic cable ensures maximum reach out of services with very less attenuations, higher bandwidths and greater reliability over longer distances as a result of which three has been a meteoric rise in its implementations in various corners of the globe. The growth of upcoming technologies, more popularly referred to as SMAC (Social, Mobility, Analytics and Cloud) demands for higher bandwidth cables. The capabilities of existing legacy copper wire cables does not match with the requirements of these technologies. As the amount and speed of transfer of data over the copper wire cables seemed to be very limited and incapable of serving the ever increasing data transmission demands, there has been a need for replacing these cables with better suited alternatives that remain cost effective as well as performance effective. The key players profiled in the report are Corning Inc., Prysmian SpA, Yangtze Optical Fiber and Cable Co Ltd, Fujikura Limited, Sterlite Technologies, Finolex Cable Limited, OFS Fitel, LLC, Alcatel Lucent, Broadcom Limited and Amphenol Corporation. - Yangtze Optical Fiber and Cable Co Ltd. For more information about this report visit http://www.researchandmarkets.com/research/qrb4zc/optical_fiber
News Article | April 25, 2017
Global Fibre Optic Cable Market, by Application (Defence, Utility, Telecommunications, Aerospace), by Component (Connector, Coupler, Amplifier, Receiver, Transmitter), by Type (Single mode, Multi-mode) - Forecast 2027 Pune, India - April 25, 2017 /MarketersMedia/ — Market Scenario The major growth driver of Fibre Optic Cable Market includes rising demand for higher bandwidth fabric-based broadband services, growing investment in telecommunications and information technology sectors, growing advancement of Fibre optic technology, and growing adoption of 3G and 4G technology among others. However, weak signal strength of Fibre cables is one of the major factors which are hindering the growth of Fibre Optic Cable Market. Industry News: o Amphenol Corporation has announced in July 2016 about its new expansion in Chicago. It has recently opened another group named Amphenol EEC. This new organization will manufacture connectors and cable assemblies. This also offers CNC machining, tool making, powder coating and overmold process among others. o Avago technologies has announced in March 2016 about its new expansion named Fibre channel host bus adapters which is been developed to address the demand for enterprise data storage systems. Key Players • Alcatel-Lucent SA (France) • Amphenol Corporation (U.S.) • Avago Technologies (U.S.) • Ciena corporation (U.S.) • Corning optical communications (U.S.) • Diamond SA (Switzerland) • EMCORE corporation (U.S.) • Sterlite Technologies Limited (India) • Fujikura Limited (Japan) • Prysmian Spa (Italy) Request a Sample Report @ https://www.marketresearchfuture.com/sample_request/1072 Segments Segmentation by Type: o Single Mode o Multi-Mode Segmentation by Components: o Connectors o Amplifiers o Couplers o Transmitter o Receivers Segmentation by Application: o Telecommunication o Oil & Gas o Aerospace & Defense o Data Network o Utilities Objective of Fibre Optic Cable Market Study: o To provide detailed analysis of the market structure along with forecast for the next 10 years of the various segments and sub-segments of the Global Fibre Optic Cable market. o To provide insights about factors affecting the market growth. o To Analyze the Fibre Optical Cable Market based on various factors- price analysis, supply chain analysis, porters five force analysis etc. o To provide historical and forecast revenue of the market segments and sub-segments with respect to four main geographies and their countries- North America, Europe, Asia, and Rest of the World (ROW). o To provide country level analysis of the market with respect to the current market size and future prospective o To provide country level analysis of the market for segment by component, by applications and sub-segments. o To provide strategic profiling of key players in the market, comprehensively analyzing their core competencies, and drawing a competitive landscape for the market o To track and analyze competitive developments such as joint ventures, strategic alliances, mergers and acquisitions, new product developments, and research and developments in the Global Fibre Optic Cable market. Browse Report @ https://www.marketresearchfuture.com/reports/fibre-optic-cable-market Brief TOC 1. Report Prologue 2. Market Introduction 2.1 Definition 2.2 Scope Of The Study 2.2.1 Research Objective 2.2.2 Assumptions 2.2.3 Limitations 2.3 Market Structure 3. Research Methodology 3.1 Research Process 3.2 Primary Research 3.3 Secondary Research 3.4 Market Size Estimation 3.5 Forecast Model 4. Market Dynamics 4.1 Drivers 4.2 Restraints 4.3 Opportunities 4.4 Mega Trends 4.5 Macroeconomic Indicators 5. Market Factor Analysis 5.1 Value Chain Analysis 5.2 Porter’s Five Forces Continue……… The report for Fibre Optic Cable Market of Market Research Future comprises of extensive primary research along with the detailed analysis of qualitative as well as quantitative aspects by various industry experts, key opinion leaders to gain the deeper insight of the market and industry performance. The report gives the clear picture of current market scenario which includes historical and projected market size in terms of value and volume, technological advancement, macro economical and governing factors in the market. The report provides details information and strategies of the top key players in the industry. The report also gives a broad study of the different market segments and regions. Related Report Global Energy Harvesting Market Information, by Energy Source (Chemicals, Mechanicals, Electrical, Nuclear), by Technology (Electrodynamics, Photovoltaic, Thermoelectric), by Application (Consumer Electronics, Industrial, Automotive, Healthcare) - Forecast 2016-2027 https://www.marketresearchfuture.com/reports/energy-harvesting-market About Market Research Future: At Market Research Future (MRFR), we enable our customers to unravel the complexity of various industries through our Cooked Research Report (CRR), Half-Cooked Research Reports (HCRR), Raw Research Reports (3R), Continuous-Feed Research (CFR), and Market Research & Consulting Services. Contact Info:Name: Akash AnandEmail: firstname.lastname@example.orgOrganization: Market Research FutureAddress: Office No. 528, Amanora Chambers Magarpatta Road, HadapsarPhone: +1 646 845 9312Source URL: http://marketersmedia.com/fibre-optic-cable-market-share-growth-competitor-strategy-industry-trends-and-forecast-to-2027/189939For more information, please visit https://www.marketresearchfuture.com/reports/fibre-optic-cable-marketSource: MarketersMediaRelease ID: 189939
Sterlite Technologies Ltd. | Date: 2017-06-07
Disclosed is an optical fiber cable (100). The optical fiber cable (100) includes a buffer tube (120) substantially present along a longitudinal axis (120). The optical fiber cable (100) includes a first layer (125). The first layer (125) surrounds the buffer tube (120). The optical fiber cable (100) includes a second layer (130). The second layer (130) surrounds the first layer (125). Moreover, the optical fiber cable (100) includes one or more strength members (135a-b) embedded inside the second layer (130). The buffer tube (120) encloses a plurality of optical fibers (110a-d). The first layer (125) and the second layer (130) provide a kink resistance, a crush resistance and flexibility to the optical fiber cable (100). Each of the one or more strength members (135a-b) is coated with a layer of ethylene acrylic acid (140a-b). The layer of ethylene acrylic acid (140a-b) prevents slipping of the one or more strength members (135a-b) in the second layer (130).
Agency: GTR | Branch: EPSRC | Program: | Phase: Research Grant | Award Amount: 777.15K | Year: 2015
As recently discussed by the Wall Street Journal, the remarkable success of the internet may be attributed to the tremendous capacity of unseen underground and undersea optical cables and the associated technologies. Indeed, the initial surge in web usage in the mid-1990s coincides with the first optically amplified transatlantic cable network allowing ready access to information otherwise inaccessible. Tremendous progress has been made since then, and since the introduction of the single mode optical fibre network by BT in 1983 all developments have exploited the same physical infrastructure, enabling return on investment over three decades in time and almost five orders of magnitude in capacity. However, of equal importance have been the last mile actually connecting customers to the network. Whilst growth in the last century was supported by the existing copper infrastructure, todays networks are more technologically fractured, split between (in order of capacity, ranging from a few kbit/s to a few Gbit.s) this legacy network, satellite distribution (plagued by poor latency), wireless networks, hybrid fibre/copper (eg BT Infinity), coaxial networks (cable TV), passive optical networks and point to point optical networks. Each of these solutions offer unique features suited to todays market, enabling competition between network operators (eg BT, Virgin, EE) as well as service providers. However, with the exception of fibre based solutions the potential for further capacity growth is limited. As demand for communication services applications continue to grow in number (e.g. Twitter, YouTube, Facebook, etc.) and in bandwidth (e.g. HDTV, 4k video...), all parts of the communication systems carrying this traffic must be able to operate at higher and higher speeds. This ever-growing capacity demand can only be handled by continually upgrading the capacity of all parts of the network, including long-haul links between major cities, as well as the critical last mile distribution networks ending at or near the customer premises which are the focus of this project. In UPON, rather than continuing to introduce this series of platforms, each optimised for a specific application and data rate, we will identify the network configuration which allows the maximum possible capacity per user (with a single connection), considering both the limitations of the access network itself (arising from trade-off between nonlinearity and noise) and the practically achievable capacity in the core network. This unique approach will allow the development of a single, optimised network configuration with the highest possible growth potential. By considering techno-economic modelling as a fundamental component of the network design, with equal weight to technological constraints, will also identify, propose and demonstrate cost effective evolution scenarios. These scenarios will enable the gradual roll out of network capacity and customer demand and bandwidth intensive applications are developed over the next decades. This will be achieved in three phases: Experimental and theoretical analysis, of the impact of geographical layout on the signal loss, of the impact of various forms of optical distortions - most importantly nonlinear distortions where the light intensity alters the refractive index of the fibre itself, and cost; Development of novel technologies to enhance the achievable data rates for each customer, specifically exploiting the unique properties of a new form of optical amplifier the Fibre Optic Parametric Amplifier, and new transmission fibres specifically designed for access applications; Experimental demonstrations proving the feasibility of the UPON configuration and influencing the decision making processes within major network operators. If UPON is successful, it will pave the way for the highest possible connectivity between people, offering unprecedented quality of experience, at the optimum cost.
News Article | February 27, 2017
BARCELONA, Spain, February 27, 2017 /PRNewswire/ -- Sterlite Tech BSE: 532374, NSE: STRTECH, a global technology leader in smarter digital infrastructure, will be showcasing its end-to-end telecom solutions at MWC, Barcelona. The showcase will include optical communication products,...
Sterlite Technologies Ltd. | Date: 2016-05-25
Disclosed is an optical fiber cable (100). The optical fiber cable (100) comprises a strength member (102). The strength member (102) lies substantially symmetrical along a longitudinal axis (101) of the optical fiber cable (100). In addition, the optical fiber cable (100) comprises a plurality of fiber units (103). Moreover, the optical fiber cable (100) comprises an outer jacket (104). Further, the outer jacket (104) surrounds the plurality of fiber units (103). Each of the plurality of fiber units (103) includes one or more optical fibers (100), a first covering layer (109) and a second covering layer (108). The first covering layer (109) is enclosed by the second covering layer (108). Each of the one or more optical fibers (105) is enclosed by the first covering layer (109). The outer jacket (104) includes a first outer jacket layer (107) and a second outer jacket layer (106).
Sterlite Technologies Ltd. | Date: 2015-11-19
The present disclosure provides an optical fiber cable. The optical fiber cable includes a strength member made of a composite material made of a polymer matrix. The strength member is centrally located. The strength member lies substantially symmetrical along a longitudinal axis of the optical fiber cable. In addition, the optical fiber cable includes a plurality of fiber units. Moreover, the optical fiber cable includes an outer jacket. The outer jacket surrounds the plurality of fiber units. Each of the plurality of fiber units includes one or more optical fibers, a first covering layer, a second covering layer and a gel. The first covering layer is enclosed by the second covering layer. Each of the one or more optical fiber cables is enclosed by the first covering layer.
Sterlite Technologies Ltd. | Date: 2016-12-14
Disclosed is an optical fiber cable. The optical fiber cable includes a plurality of sleeves (105a-k; 205a-k; 305a-k) substantially along a longitudinal axis of the optical fiber cable. Further, the optical fiber cable includes a first layer (120; 220; 320) surrounding the plurality of sleeves (105a-k; 205a-k; 305a-k). Furthermore, the optical fiber includes a second layer (125; 225; 325) surrounding the first layer (120; 220; 320). In addition, the optical fiber cable includes a third layer (130; 230; 330) surrounding the second layer (125; 225; 325). The second layer (125; 225; 325) prevents ingression of water inside the plurality of sleeves (105a-k; 205a-k; 305a-k). Moreover, the third layer (130; 230; 330) has a plurality of strength members (135a-b; 235a-b; 335a-b) embedded inside the third layer. In addition, each of the plurality of strength members (135a-b; 235a-b; 335a-b) is coated with a layer of ethylene acrylic acid (140a-b; 240a-b; 340a-b).
Sterlite Technologies Ltd. | Date: 2016-12-14
Disclosed is an optical fiber cable (100). The optical fiber cable (100) comprises a central strength member substantially along a longitudinal axis of the optical fiber cable (100). The optical fiber cable (100) comprises a plurality of sleeves (110a-f) stranded around the central strength member (105). Further, the optical fiber cable (100) comprises a first layer (125) that surrounds the plurality of sleeves (110a-f). Moreover, the optical fiber cable (100) comprises a second layer (130). The second layer (130) surrounds the first layer (125). In addition, the optical fiber cable (100) comprises a third layer (135). The third layer (135) surrounds the second layer (130). The plurality of sleeves (110a-f) is stranded around the central strength member (105) to form a stranded core. The one or more yarns are helically wound around the stranded core for binding each of the plurality of sleeves (110a-f) around the central strength member (105).