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News Article | November 24, 2016
Site: www.newsmaker.com.au

The report “Automotive Composites Market by Type (Glass fiber composites, Carbon fiber Composites, Natural fiber Composites, Metal Matrix Composites, and Ceramic Matrix Composites) and by Application (Interior Components, Exterior Components, Chassis & Powertrain Components and Others) - Global Trends & Forecast to 2019, defines and segments the global automotive composite market with an analysis and forecast of its global volume and value. Browse 91 market data tables and 86 figures spread through 150 pages and in-depth TOC on “Automotive Composites Market - Global Trends & Forecast to 2019” http://www.marketsandmarkets.com/Market-Reports/automotive-composite-market-10869121.html Early buyers will receive 10% customization on this report. The Asia-Pacific region was the world’s largest market for automotive composite in 2013. China is the key consumer of automotive composite in Asia-Pacific. Need for lightweight and fuel efficient vehicles shifted manufacturers focus towards automotive composite. Various product launches, partnerships, agreements, and expansions have in turn made the region a potential growth market for automotive composite. Carbon fiber is a material made up of carbon atoms that are aligned parallel to the main axis of the fiber. The fibers are very thin in diameter, about 1/10th the size of a human hair. The crystal alignment makes the fiber very strong for its size. Normally, carbon fibers are molded with other materials such as plastic resin and graphite to form carbon fiber composite. Carbon fiber composite is the fastest-growing automotive composite driven by its high demand for chassis & powertrain components application. The chassis & powertrain market for automotive composite has a wide scope for its expansion, which in turn would help in increasing the consumption for automotive composite. Exterior components are the biggest application of automotive composite and are projected to be worth $ 3,555.51 million by 2019. Toray Industries Inc. (Japan), Owens Corning (U.S.), Johns Manville (U.S.), SGL Group (Germany), Cytec Industries Inc. (U.S.), Koninklijke Ten Cate nv (The Netherlands),    Nippon Sheet Glass Co., Ltd. (Japan), Jushi Group Co. Ltd. (China), and Teijin Limited (Japan) are some of the major manufacturers of automotive composite. Company profiling and competitive strategies adopted by top automotive manufacturers such as Bayerische Motoren Werke Aktiengesellschaft (Germany), Volkswagen Group (Germany), General Motor Company (U.S.), and Ford Motor Company (U.S.) are also covered in the report. The report also defines driving and restraining factors for the global automotive composite market with the analysis of trends, opportunities, burning issues, winning imperatives, and challenges. Some of the drivers include increasing demand for fuel efficient vehicles, and reduced weight and parts consolidation offered by automotive composite.  Some of the restraints include high cost of composite, and concerns about recyclability. There are some opportunities which will change the dynamics of automotive composite industry in the years to come, which include emission regulations that are forcing OEMs’ attention towards composite, and growth opportunity in high volume production of structural automotive components. The market is forecasted on the basis of major regions, such as North America, Europe, Asia-Pacific, and Rest of the World (RoW) by both value and volume. The regional automotive composite market is further segmented on the basis of major applications.


Research and Markets has announced the addition of the "GFRP Composites Market By Resin Type, Manufacturing Process, Application and By Region - Global Forecast To 2026" report to their offering. The global Glass Fiber Reinforced Plastics (GFRP) composites market is projected to grow from USD 44.10 Billion in 2016 to USD 60.33 Billion by 2021, at a CAGR of 6.47% during the forecast period The GFRP composites market is growing due to the high demand from the wind energy & other emerging application industries such as electrical & electronics, and transportation. GFRP composites are preferred as they have the ability to reduce the weight of the product and are stronger than metallic parts. The GFRP manufacturing process improves productivity through innovative engineering approaches, minimizes energy consumption, and reduces the VOC emission levels. The GFRP composites market witnessed strong growth during the past few years due to the growing use of composites in the U.S., Germany, China, Brazil, and Japan. The GFRP composites market is segmented on the basis of the manufacturing processes into compression molding, manual process, injection molding and the continuous process. Injection molding is the fastest growing, as well as the largest market for GFRP composites in terms of the manufacturing process. It is the most preferred process for the manufacture of GFRP composites, and accounted for a major share, in terms of value, in 2015. This is because the process enables low labor costs, low scrap rate, has a fast cycle time and low mold-clamping pressure. The process is widely applicable in the automotive and electrical & electronics industries for the production of bumpers for vehicles, panels for electrical equipment, enclosures for medical devices, and others. The GFRP composites market is also segmented by application, which includes, wind energy, transportation, construction & infrastructure, electrical & electronics, and others. Wind energy accounts for the highest market share, as well as is the fastest growing application, owing to innovations in the integration of lightweight GFRP composites, which have facilitated the manufacture of increasingly larger blade lengths with increased stiffness. This is expected to increase the demand for GFRP composites from wind energy component manufacturers. 5 Market Overview 5.1 Introduction 5.2 Market Segmentation 5.2.1 GFRP Composites Market, By Resin Type 5.2.2 GFRP Composites Market, By Manufacturing Process 5.2.3 GFRP Composites Market, By Application 5.3 Market Dynamics 5.3.1 Market Dynamics 5.3.2 Drivers 5.3.2.1 Growing Wind Energy Installations 5.3.2.2 Increase in Use of GFRP Composites in End-Use Industries 5.3.2.3 Recovery of the Marine Industry in the U.S. After the Economic Recession 5.3.2.4 Increasing Demand for Lightweight Materials From the Transportation Industry 5.3.3 Restraints 5.3.3.1 Recyclability Issues 5.3.4 Opportunities 5.3.4.1 Growing Demand for GFRP Composites in the Mena Region 5.3.5 Challenges 5.3.5.1 to Reduce Capital and Technology Costs 5.3.6 Impact Analysis of Drivers 5.4 Porter's Five Forces Analysis 12 Company Profiles - AGY Holdings Corp. - Asahi Fiber Glass Co., Ltd. - Chongqing Polycomp International Corporation - Johns Manville Corporation - Jushi Group Co., Ltd. - Nippon Sheet Glass Co. Ltd. - Owens Corning - PPG Industries Inc. - Saint-Gobain S.A. - Taishan Fiberglass Inc. For more information about this report visit http://www.researchandmarkets.com/research/7lxk2g/gfrp_composites


News Article | December 1, 2016
Site: www.newsmaker.com.au

Global Automotive Composites market is accounted for $3.40 billion in 2015 and is expected to reach $7.13 billion by 2022 growing at a CAGR of 11.1% from 2015 to 2022. The Automotive Composites market has been witessing exponential growth, mainly due to the need for higher fuel-efficient and less polluting automobiles. This factor has driven automakers towards the research of lightweight materials which are lighter than steel and have good tensile strength. With the increase in production of electric cars, as a replacement of Co2 emitting vehicles, the growth in Automotive Composites market will be vast. The huge process cycle time, high cost of composite and unrecyclable factors are hampering the market. Carbon fibre composite segment is expected to witness highest growth rate due to its huge demand for chassis & power train component applications. While exterior component segment dominated the global automotive composite application market. Asia-Pacific registered the world’s largest market for automotive composite. Increasing domestic production of vehicles is driving the automotive composites market. Some of the major players in the global Automotive Composites market include Volkswagen Group, Ford Motor Company , General Motor Company, Nippon Sheet Glass Co. Ltd., Owens Corniing, Tencate, Jushi Group Co. Ltd, Johns Manville, Cytec Industries , Sgl Group – The Carbon Company, Toray Industries and Teijin Limited Applications Covered:  • Interior  • Chassis & Powertrain  • Exterior  Regions Covered:  • North America  o US  o Canada  o Mexico  • Europe  o Germany  o France  o Italy  o UK  o Spain  o Rest of Europe  • Asia Pacific  o Japan  o China  o India  o Australia  o New Zealand  o Rest of Asia Pacific  • Rest of the World  o Middle East  o Brazil  o Argentina  o South Africa  o Egypt What our report offers:  - Market share assessments for the regional and country level segments  - Market share analysis of the top industry players  - Strategic recommendations for the new entrants  - Market forecasts for a minimum of 7 years of all the mentioned segments, sub segments and the regional markets  - Market Trends (Drivers, Constraints, Opportunities, Threats, Challenges, Investment Opportunities, and recommendations)  - Strategic recommendations in key business segments based on the market estimations  - Competitive landscaping mapping the key common trends  - Company profiling with detailed strategies, financials, and recent developments  - Supply chain trends mapping the latest technological advancement Wise Guy Reports is part of the Wise Guy Consultants Pvt. Ltd. and offers premium progressive statistical surveying, market research reports, analysis & forecast data for industries and governments around the globe. Wise Guy Reports understand how essential statistical surveying information is for your organization or association. Therefore, we have associated with the top publishers and research firms all specialized in specific domains, ensuring you will receive the most reliable and up to date research data available.


The present invention provides a glass fiber composition, a glass fiber and a composite material therefrom. The glass fiber composition comprises the following components expressed as percentage by weight: 58-64% SiO_(2), 14-19% A12O3, 8.8% and <11.8% CaO, 7.5-11% MgO, 0.2-2.7% SrO, 0.1-2% Na2O+K2O, 0.05-0.9% Li_(2)O, 0.05-1% Fe2O3, 0.05-1.1% TiO_(2) and <0.5% F2, wherein the range of the weight percentage ratio C1 = (MgO+SrO)/CaO is 0.75-1.1, and the range of the weight percentage ratio C2 = CaO/MgO is less than 1.4. Said composition can effectively inhibit the crystallization tendency of glass, significantly decrease the liquidus temperature and crystallization degree of glass and also has an outstanding glass refractive index and outstanding modulus.


The present invention provides a glass fiber composition, a glass fiber and a composite material therefrom. The glass fiber composition comprises the following components expressed as percentage by weight: 58-64% SiO2, 14-19% Al203, 8.8% and <11.8% CaO, 7.5-11% MgO, 0.2-2.7% SrO, 0.1-2% Na2O+K2O, 0.05-0.9% Li2O, 0.05-1% Fe2O3, 0.05-1.1% TiO2 and <0.5% F2, wherein the range of the weight percentage ratio C1=(MgO+SrO)/CaO is 0.75-1.1, and the range of the weight percentage ratio C2=CaO/MgO is less than 1.4. Said composition can effectively inhibit the crystallization tendency of glass, significantly decrease the liquidus temperature and crystallization degree of glass and also has an outstanding glass refractive index and outstanding modulus.


A composition for preparing high-performance glass fiber by tank furnace production comprising in preferred percentage by weight: 57.562.5% of SiO_(2), 14.517.5% of Al_(2)O_(3), 13.517.5% of CaO, 6.58.5% of MgO, 0.050.6% of Li_(2)O, 0.12% of B_(2)O_(3), 0.12% of TiO_(2), 0.12% of Na_(2)O, 0.11% of K_(2)O and 0.11% of Fe_(2)O_(3 )and (CaO+MgO)/MgO>3, with the content of at least one of the three components, A_(2)O, B_(2)O_(3 )and TIO_(2 )higher than 0.5%, with the composition yielding glass fiber having improved mechanical property, causing the melting and clarification of glass and forming performance of fiber close to those of boron-free E glass, and facilitating industrial mass production by tank furnace processes with manufacturing costs close to those of conventional E glass.


E8

Trademark
Jushi Group Co. | Date: 2016-07-29

Asbestos fibers; Carbon fibers not for textile use; Fiberglass fabrics for insulation; Fiberglass for insulation; Insulating fabrics; Insulating felt for use in industry; Insulating refractory materials; Soundproofing materials; Vulcanized fiber; Plastic fibers for use in the manufacture of tire cord.


E8

Trademark
Jushi Group Co. | Date: 2016-07-29

Basins; Cosmetic brushes; Drinking vessels; Fiberglass other than for insulation or textile use; Fiberglass thread, not for textile use; Glass, unworked or semi-worked, except building glass; Porcelain mugs; Sprinklers for watering flowers and plants; Synthetic fibers for the manufacture of brushes, namely, toothbrushes, hair brushes and cleaning brushes; Toothbrushes; Works of art made of porcelain.


E8

Trademark
Jushi Group Co. | Date: 2016-07-29

Carbon fibers for textile use; Glass fibers for textile use; Packaging bags of textile material; Padding materials, not of rubber, plastics, paper or cardboard; Raw fibrous textile; Raw linen; Sails; Textile fibers; Vitreous silica fibers for textile use.


A composition for preparing high-performance glass fiber by tank furnace production comprising in preferred percentage by weight: 57.562.5% of SiO_(2), 14.517.5% of Al_(2)O_(3), 13.517.5% of CaO, 6.58.5% of MgO, 0.050.6% of Li_(2)O, 0.12% of B_(2)O_(3), 0.12% of TiO_(2), 0.12% of Na_(2)O, 0.11% of K_(2)O and 0.11% of Fe_(2)O_(3 )and (CaO+MgO)/MgO>3, with the content of at least one of the three components, A_(2)O, B_(2)O_(3 )and TlO_(2 )higher than 0.5%, with the composition yielding glass fiber having improved mechanical property, causing the melting and clarification of glass and forming performance of fiber close to those of boron-free E glass, and facilitating industrial mass production by tank furnace processes with manufacturing costs close to those of conventional E glass.

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