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The new SCM Series supercapacitor modules deliver high capacitance values, low ESR, low DCL, & long lifetime performance ideal for hold-up, energy harvesting, & pulse power applications in the industrial & consumer electronics industries FOUNTAIN INN, SC--(Marketwired - November 02, 2016) - AVX Corporation ( : AVX), a leading manufacturer and supplier of passive components and interconnect solutions, has released a new series of supercapacitor modules. Comprised of series-connected cylindrical, electrochemical, double-layer supercapacitors, the new SCM Series supercapacitor modules are currently available in two voltage ratings (5V and 5.4V), and exhibit optimal pulse power handling characteristics, including: high capacitance values (0.47F - 7.5F ±20% tolerance), low ESR (4mΩ - 300mΩ at 1,000KHz), low leakage (2µA - 1,000µA), high energy density (1 to 5.6Wh/kg), and long lifetime performance (50,000+ cycles). Designed to provide reliable hold-up, energy harvesting, and pulse power solutions, SCM Series modules can be used alone or in conjunction with primary or secondary batteries to provide extended backup time, longer battery life, and instantaneous pulse power in applications including: uninterrupted power supplies (UPS), wireless alarms, remote meters, global systems mobile (GSM) and galvanic skin response (GSR) transmissions, camera flash systems, scanners, toys, and games. "Our new SCM Series supercapacitor modules deliver optimal pulse power handling characteristics that significantly outperform the competition at a very competitive price," said Shawn Hansen, the worldwide business manager for specialty capacitors at AVX. SCM Series supercapacitor modules are rated for use in operating temperatures spanning -40°C to +65°C at 5.0 - 5.4V balanced, or, with voltage de-rated to 3.9 - 4.6V per cell, -40°C to +85°C balanced. Unbalanced options are also available. Packaged in plastic or shrink-wrapped cases spanning 14mm to 24mm in length with vertical or horizontal radial leads, the series is compatible with hand, reflow, and wave soldering so long as appropriate precautions are enacted, and is both lead-free compatible and RoHS compliance compatible. All SCM Series parts are tested and qualified for life cycle, high temperature load-life, temperature and humidity characteristics, and vibration resistance, and are shipped in bulk packaging. Current lead-time for the series is four to eight weeks, and custom modules are available upon request. For more information about AVX's new SCM Series supercapacitor modules, please visit http://www.avx.com/products/supercapacitors/scm-series/ to access the product datasheet. For all other inquiries, please visit www.avx.com, call 864-967-2150, or write to One AVX Boulevard, Fountain Inn, S.C. 29644. About AVX AVX Corporation is a leading international manufacturer and supplier of electronic passive components and interconnect solutions with 20 manufacturing and warehouse facilities in 11 countries around the world. AVX offers a broad range of devices including capacitors, resistors, filters, timing and circuit protection devices, and connectors. The company is publicly traded on the New York Stock Exchange ( : AVX). A member of the Kyocera Group since 1990, AVX is also the only company authorized to supply Kyocera's electronic devices to the Americas and Europe. Established in 1959 and based in Kyoto, Japan, Kyocera Corporation is a leading international supplier of connectors, capacitors, ceramic resonators, surface acoustic wave (SAW) filters and duplexers, and crystal oscillators and timing devices.


This report studies Connector Audio and Video in Global Market, especially in North America, Europe, China, Japan, Korea and Taiwan, focuses on top manufacturers in global market, with production, price, revenue and market share for each manufacturer, covering  Amphenol  DELTRON EMCON  Kycon  ITT Interconnect Solutions  Hirose Electric  LUMBERG CONNECT  Molex  SCHURTER  TE Connectivity  Samtec  Switchcraft  3M  AVX  Weidmuller  Pulse  MPE-GARRY  Kycon  Market Segment by Regions, this report splits Global into several key Regions, with production, consumption, revenue, market share and growth rate of Connector Audio and Video in these regions, from 2011 to 2021 (forecast), like  North America  Europe  China  Japan  Korea  Taiwan  Split by product type, with production, revenue, price, market share and growth rate of each type, can be divided into  Type I  Type II  Type III  Split by application, this report focuses on consumption, market share and growth rate of Connector Audio and Video in each application, can be divided into  Application 1  Application 2  Application 3 Global Connector Audio and Video Market Research Report 2016  1 Connector Audio and Video Market Overview  1.1 Product Overview and Scope of Connector Audio and Video  1.2 Connector Audio and Video Segment by Type  1.2.1 Global Production Market Share of Connector Audio and Video by Type in 2015  1.2.2 Type I  1.2.3 Type II  1.2.4 Type III  1.3 Connector Audio and Video Segment by Application  1.3.1 Connector Audio and Video Consumption Market Share by Application in 2015  1.3.2 Application 1  1.3.3 Application 2  1.3.4 Application 3  1.4 Connector Audio and Video Market by Region  1.4.1 North America Status and Prospect (2011-2021)  1.4.2 Europe Status and Prospect (2011-2021)  1.4.3 China Status and Prospect (2011-2021)  1.4.4 Japan Status and Prospect (2011-2021)  1.4.5 Korea Status and Prospect (2011-2021)  1.4.6 Taiwan Status and Prospect (2011-2021)  1.5 Global Market Size (Value) of Connector Audio and Video (2011-2021) 2 Global Connector Audio and Video Market Competition by Manufacturers  2.1 Global Connector Audio and Video Production and Share by Manufacturers (2015 and 2016)  2.2 Global Connector Audio and Video Revenue and Share by Manufacturers (2015 and 2016)  2.3 Global Connector Audio and Video Average Price by Manufacturers (2015 and 2016)  2.4 Manufacturers Connector Audio and Video Manufacturing Base Distribution, Sales Area and Product Type  2.5 Connector Audio and Video Market Competitive Situation and Trends  2.5.1 Connector Audio and Video Market Concentration Rate  2.5.2 Connector Audio and Video Market Share of Top 3 and Top 5 Manufacturers  2.5.3 Mergers & Acquisitions, Expansion 3 Global Connector Audio and Video Production, Revenue (Value) by Region (2011-2016)  3.1 Global Connector Audio and Video Production by Region (2011-2016)  3.2 Global Connector Audio and Video Production Market Share by Region (2011-2016)  3.3 Global Connector Audio and Video Revenue (Value) and Market Share by Region (2011-2016)  3.4 Global Connector Audio and Video Production, Revenue, Price and Gross Margin (2011-2016)  3.5 North America Connector Audio and Video Production, Revenue, Price and Gross Margin (2011-2016)  3.6 Europe Connector Audio and Video Production, Revenue, Price and Gross Margin (2011-2016)  3.7 China Connector Audio and Video Production, Revenue, Price and Gross Margin (2011-2016)  3.8 Japan Connector Audio and Video Production, Revenue, Price and Gross Margin (2011-2016)  3.9 Korea Connector Audio and Video Production, Revenue, Price and Gross Margin (2011-2016)  3.10 Taiwan Connector Audio and Video Production, Revenue, Price and Gross Margin (2011-2016) For more information or any query mail at [email protected]


News Article | March 24, 2016
Site: www.scientificcomputing.com

Molecular dynamics, quantum chemistry and quantum materials researchers use HPC resources to perform highly compute-intensive mathematical calculations and to simulate images of molecular structures. While HPC systems have been updated to increase processing speed and parallelization, many HPC codes are not optimized to take advantage of coming hardware advances, such as next-generation Intel Xeon Phi processors. This is the first in a series of articles, told from the perspective of the individuals who are updating the codes, that describes the changes various national laboratories and scientific research centers are making to improve code optimization and parallelization in order to reduce scientists’ time to discovery. Quicker time to discovery. That’s what scientists focused on quantum chemistry are looking for. According to Bert de Jong, Computational Chemistry, Materials and Climate Group Lead, Computational Research Division, Lawrence Berkeley National Lab (LBNL), “I’m a computational chemist working extensively with experimentalists doing interdisciplinary research. To shorten time to scientific discovery, I need to be able to run simulations at near-real-time, or at least overnight, to drive or guide the next experiments.” Changes must be made in the HPC software used in quantum chemistry research to take advantage of advanced HPC systems to meet the research needs of scientists both today and in the future. NWChem is a widely used open source software computational chemistry package that includes both quantum chemical and molecular dynamics functionality. The NWChem project started around the mid-1990s, and the code was designed from the beginning to take advantage of parallel computer systems. NWChem is actively developed by a consortium of developers and maintained by the Environmental Molecular Sciences Laboratory (EMSL) located at the Pacific Northwest National Laboratory (PNNL) in Washington State. NWChem aims to provide its users with computational chemistry tools that are scalable both in their ability to treat large scientific computational chemistry problems efficiently, and in their use of available parallel computing resources from high-performance parallel supercomputers to conventional workstation clusters. “Rapid evolution of the computational hardware also requires significant effort geared toward the modernization of the code to meet current research needs,” states Karol Kowalski, Capability Lead for NWChem Development at PNNL. Both Pacific Northwest National Laboratory (PNNL) and Lawrence Berkeley National Laboratory (LBNL) are Intel Parallel Computing Centers (IPCCs) dedicated to optimizing NWChem code to effectively use the capability of the Intel Xeon Phi coprocessor. The main goal of the two teams is to optimize and modernize the NWChem code toward effective utilization of the emergent hybrid parallel computer systems based on the Intel Many Integrated Core Architecture (Intel MIC) technology to enable the scientific community to pursue new frontiers in the fields of chemistry and materials modeling. The aim of the LBNL and PNNL work is to create an optimized version of NWChem that enables the scientific community to pursue new frontiers in the fields of chemistry and materials and climate modeling. LBNL research and development focuses on implementing greater amounts of parallelism in the codes, starting with simple modifications such as adding/modifying OpenMP pragmas and refactoring to enable effective vectorization for performance improvement, all the way to exploring new algorithmic approaches that can better exploit manycore architectures. Catalytic materials used in conversion of cellulose to sugars and bio-oils In-silico design is critical in accelerating the development of new catalysts and chemical reaction and transformation processes that tackle key scientific and engineering challenges in the production of sustainable products in efficient, environmentally friendly and cost-effective ways at industrial scale. Heterogeneous catalysis has a rich history of facilitating energy-efficient selective chemical transformations and contributes to 90 percent of chemical manufacturing processes. Catalysts are central to overcoming the engineering and scientific barriers to economically feasible routes for the conversion of biomass-derived and solar-mediated fuel and chemicals into usable products. “An example is the conversion of cellulose into sugars and bio-oils, which through catalytic processes can be converted into biofuels or building blocks for industrial applications. Accurate simulations of the kinetics and thermodynamics of chemical transformations enable scientists to discover new and novel ways to predict, control and design optimal — industrially viable — catalytic activity and selectivity by rapidly scanning the large design space. It is crucial for the catalyst development process that compute-intensive computational chemistry simulations with NWChem run as efficiently on the next-generation computing platforms with the fastest time-to-solution possible,” states de Jong. Chem algorithms to take advantage of the new HPC architectures. Their work addresses the performance of several computational drivers in NWChem in these areas: Gaussian Density Functional Theory (DFT) methods, plane wave DFT formulations and multi-reference coupled cluster methods. The team is reworking codes with four major aims in mind: PNNL is rewriting NWChem algorithms to take advantage of the new HPC architectures. Their work addresses the performance of several computational drivers in NWChem in these areas: Gaussian Density Functional Theory (DFT) methods, plane wave DFT formulations and multi-reference coupled cluster methods. The team is reworking codes with four major aims in mind: In particular, the PNNL Intel PCC project focuses on the development of Intel MIC implementations of the so-called multi-reference coupled cluster (MRCC) methods, which are considered one of the most accurate methods in quantum chemistry. “These methods can be used to describe bond breaking processes, transition states in molecules, open-shell low-spin electronic states, and excited states.  Through combining novel algorithms for harnessing combined power of Intel Xeon processors and Intel Xeon Phi co-processors with several levels of parallelism, the PNNL team has achieved a considerable (3X) speedup of the MRCC codes. The achieved progress will allow us to apply expensive CC methodologies to model challenging problems in catalysis and to describe important enzymatic reactions,” indicates Kowalski. The PNNL team is also using a directive-based offload model and OpenMP 4.0 in their work. The team uses an offload model that keeps large parts of the existing Fortran code unmodified by inserting Intel Language Extensions for Offloading (LEO) constructs. This approach significantly reduces time needed to develop and validates the code and, at the same time, provides tangible performance speedups associated with the utilization of the Intel Xeon Phi coprocessors. While the Intel Xeon Phi coprocessor supports several offload programming models, each with unique properties, only the Intel LEO constructs — unfortunately a proprietary offload language that predates the availability of the target directives in OpenMP 4.0 — provide the needed flexibility of transfer of data and control, and required incremental changes to the existing Fortran source code. “Novel offloading algorithms developed in the last two years at PNNL not only helped to reduce time-to-solution of accurate methods, but also improved the scalability of the targeted implementations,” said Dr. Edoardo Aprà the lead author of the Supercomputing 2014 paper reporting on the first Intel MIC implementation of the ubiquitous CCSD(T) formalism. PNNL is currently using the OpenMP multithreading features for the parallelization of floating-point intensive computational kernels. They plan to convert the Intel LEO directives currently used for offloading to the target directives that are part of the OpenMP 4.0 standard. The LBNL team is modifying and optimizing the NWChem code to more fully utilize features of the Intel Xeon Phi processor. The team is focused on end-to-end treading of plane wave capability, the Hartree-Fock and Density Functional Theory (DFT) Fock build, and coupled cluster triples on Intel Xeon Phi processors. The work of the LBNL team is key to getting NWChem ready for the arrival of NERSC’s Cori supercomputer, which will feature the Knights Landing Xeon Phi processor code name Knight Landing. “Our goal is to at least double the performance of computational chemistry and materials software, specifically NWChem, to accelerate scientific discovery. We want to use the Intel processors as efficiently as possible to get the fastest time-to-solution for the science problems we are trying to simulate using Intel processors,” states de Jong. The LBNL team has found the integral computation to be poorly vectorizable and is having thread-safety issues with data structures present in the legacy code; they will be integrating other better vectorizable integral codes, and will explore implementing a new algorithm, using AVX-512 instructions, to improve their performance. They are also looking at using heterogeneous computing approaches, where different processors work on different operations, instead of simple OpenMP constructs to increase the amount of parallelism available to the processors. For the Fock matrix build in the Hartree-Fock or DFT algorithm, they achieved a 1.6x speedup running natively on the Intel Xeon Phi coprocessor. LBNL achieved a 3.3x speedup for the triples correction in the coupled cluster algorithm using both the Intel Xeon processor and the Intel Xeon Phi coprocessor. The key to achieving this speedup was to optimize not just the expensive loops (for which the team integrated advances made by the joint PNNL-Intel efforts), but integrating OpenMP directives in all parts of the triples code (such as those that set up data structures and the summations that occur as part of the post processing for the triples energy). “Our latest work is on the plane-wave algorithm where the most time-consuming parts are the FFT (Fast Fourier Transform) and matrix multiplications on tall and skinny matrices (200x10,000, for example). Working together with PNNL, we have transformed the complete plane-wave algorithm to utilize OpenMP. Our work at LBNL has focused on the tall and skinny matrices. We developed a reduce algorithm for these special matrix multiplications using OpenMP teams and we achieved a 5.5x speedup over Intel’s MKL library on the Intel Xeon processor E5-2680 v3, formerly known as Haswell. We’re currently implementing this in our plane-wave algorithm and will be doing benchmarking on the whole code to assess the overall speedup,” states de Jong. How HPC will aid chemistry and materials research The goal at PNNL is to optimize coding efforts in such a way that they will be easily available to integrate into other open-source computational chemistry software efforts. PNNL, LBNL and Georgia Tech are working together on the project to update NWChem code. NWChem code optimized to run on advanced hardware, such as the Intel Xeon Phi coprocessor, will be reviewed and released so that it can be used by all NWChem users and researchers. Scientists are currently restricted in what they can do in their research by limitations of the supercomputers or HPC software models. They often have to reduce their research models to make them fit in the HPC resources currently available. Researchers need to be able to use the next-generation computers to run large computations faster in research areas such as solar cells or to develop novel complex organic-inorganic materials for batteries, photovoltaic or thermo-electrics that can serve sustainable energy sources. “Many of our algorithms inherently do not have long vector loops that can be easily transformed using OpenMP. I am not sure OpenMP is the complete solution. We will have to develop models that utilize heterogeneous computing on nodes with different threads/cores working on different parts of the algorithm simultaneously,” states de Jong. Modernization of underlying codes for efficient use of manycore architectures is required for benefits to be realized. According to Kowalski, “The rapid development of computer technology and emergence of petascale hybrid architectures offer an enormous increase in computational power, which will have a transformative effect on the whole area of computational chemistry, including the shift in the system-size limit tractable by many-body methods and opportunity of using accurate many-body techniques, which are characterized by steep numerical scaling. The main goal is to enable accurate methods capable of describing complicated electron correlations effects, stemming from the instantaneous interactions between electrons in molecules. This includes two major classes of methodologies: Linda Barney is the founder and owner of Barney and Associates, a technical/marketing writing, training and web design firm in Beaverton, OR. R&D 100 AWARD ENTRIES NOW OPEN: Establish your company as a technology leader! For more than 50 years, the R&D 100 Awards have showcased new products of technological significance. 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VANCOUVER, BRITISH COLUMBIA--(Marketwired - Feb. 14, 2017) - ALTAIR RESOURCES INC. ("Altair" or the "Company") (TSX VENTURE:AVX) (FRANKFURT:90A) (ISIN: CA02137W1014) (WKN: WKN A2ALMP) Mr. Harold (Roy) Shipes, President and CEO, announces that Altair has retained SJ Geophysics of Vancouver, BC, Canada to immediately begin a gravity survey to precede drilling under the 2017 exploration program scheduled to begin in March on its Invictus project, Mitrovica district, Kosovo. The Canadian technical team, under the direction of Jordan Perk, will be assisted and supported in the field by Altair's current Kosovo technical team including Prof. Dr. Alaudin Kodra - Eng. Geologist and Selim Berisha, Geologist, Masters Technical Sciences (Geology) with additional support staff including Mustafa Havolli and Munir Havolli. SJ Geophysics is now mobilizing its field crew to initiate this gravity survey. Drilling will commence immediately upon completion and interpretation of the gravity survey. As discussed in an earlier release, numerous high-grade zinc and lead occurrences lie within a target zone measuring 500 metres by 300 m. In this area several surface trenches exhibit high grade zinc-lead mineralization zones running between 17 to 35 per cent zinc plus lead over 2 to 4 m widths within broader mineralized zones. These zones lie within a pronounced zinc and lead geochemical anomaly defined by earlier work. Also from earlier work, two zones of induced polarization response and one zone of self-potential response also lie within the target area generally coincident with the geochemical anomalies. Gravity surveying is scheduled to test not only the above described target area in detail, but will also investigate, on a broader scale, the possibility of a large target within this belt of limestones and schists that hosts numerous rich surface showings and some historical underground workings. The overall target zone on the property extends over five kilometres in length and 200 to 300 m in width. Gravity surveying using a gravity meter can measure variations in the gravitational attraction and thus define areas of greater mass within a target area. Dense metal-rich orebodies show up as positive gravity anomalies because of the high density of ore minerals sphalerite, smithsonite and galena in contrast with the surrounding host lithologies of carbonate and schist. The gravity technique allows us to detect large masses of zinc ore such as smithsonite and sphalerite even though they are non-conductive in nature and not responsive to induced polarization or electromagnetic surveys. One of the most notable successes of gravity surveying in mineral exploration is the Polaris discovery in the 1960s in carbonate rocks on Little Cornwallis Island in the Canadian Arctic as described by William C. Wonders (2003, pg. 233, in "Canada's Changing North"): "Cominco undertook a gravity survey over the surface showing and discovered one of the biggest gravity anomalies recorded in the history of Canadian mineral exploration. A several milligal anomaly was delineated, which upon drilling, turned out to be a massive body of high grade galena-sphalerite ore." Altair's Invictus exploration project lies within the Crepulje property in the Mitrovica district of Kosovo, 17 kilometres due west of the city of Mitrovica. Altair holds a 9.82-square-kilometre exploration license within this historical zinc-, lead- and silver-producing region where metals have been produced since the Middle Ages. It should be noted that there are no reserves or resources on the Altair property holding, nor can there be any assurance that any such resource or reserve will be established, and if established whether such resource or reserve will be economically recoverable. The contents of this press release have been reviewed and approved by Dr. Stewart A Jackson, P.Geo, a technical adviser to the Company, a Qualified Person under National Instrument 43-101. To learn more about Altair, please visit http://altairresources.com. ON BEHALF OF THE BOARD, Neither TSX Venture Exchange nor its Regulation Services Provider (as that term is defined in the policies of the TSX Venture Exchange) accepts responsibility for the adequacy or accuracy of this release.


News Article | November 3, 2016
Site: www.newsmaker.com.au

A VCXO (voltage controlled crystal oscillator) is a crystal oscillator which includes a varactor diode and associated circuitry allowing the frequency to be changed by application of a voltage across that diode. This can be accomplished in a simple clock or sinewave crystal oscillator, a TCXO (resulting in a TC/VCXOtemperature compensated voltage controlled crystal oscillator), or an oven controlled type (resulting in an OC/VCXO-oven controlled voltage crystal oscillator). Scope of the Report: This report focuses on the Voltage Controlled Crystal Oscillator in Global market, especially in North America, Europe and Asia-Pacific, Latin America, Middle East and Africa. This report categorizes the market based on manufacturers, regions, type and application. Market Segment by Manufacturers, this report covers Epson NDK America Inc. Vectron Crystek Bliley Technologies Inc. Abracon CTS Pletronics Rakon Microchip IDT(Integrated Device Technologies) AVX ON Semiconductor Silicon Laboratories Ecliptek SiTime TXC Corporation kyocera Kinseki Bomar Crystal Company Cardinal Components IQD Frequency Products NEL Frequency Controls Inc. Taitien Market Segment by Regions, regional analysis covers North America (USA, Canada and Mexico) Europe (Germany, France, UK, Russia and Italy) Asia-Pacific (China, Japan, Korea, India and Southeast Asia) Latin America, Middle East and Africa Market Segment by Applications, can be divided into Communication Equipment Industrial Instrument Other There are 13 Chapters to deeply display the global Voltage Controlled Crystal Oscillator market. Chapter 2, to analyze the top manufacturers of Voltage Controlled Crystal Oscillator , with sales, revenue, and price of Voltage Controlled Crystal Oscillator , in 2015 and 2016; Chapter 3, to display the competitive situation among the top manufacturers, with sales, revenue and market share in 2015 and 2016; Chapter 4, to show the global market by regions, with sales, revenue and market share of Voltage Controlled Crystal Oscillator , for each region, from 2011 to 2016; Chapter 5, 6, 7 and 8, to analyze the key regions, with sales, revenue and market share by key countries in these regions; Chapter 9 and 10, to show the market by type and application, with sales market share and growth rate by type, application, from 2011 to 2016; Chapter 11, Voltage Controlled Crystal Oscillator market forecast, by regions, type and application, with sales and revenue, from 2016 to 2021; Chapter 12 and 13, to describe Voltage Controlled Crystal Oscillator sales channel, distributors, traders, dealers, appendix and data source. Global Voltage Controlled Crystal Oscillator Market by Manufacturers, Regions, Type and Application, Forecast to 2021 1 Market Overview 1.1 Voltage Controlled Crystal Oscillator Introduction 1.2 Market Analysis by Type 1.2.1 Output PECL 1.2.2 Output CMOS 1.2.3 Output SINEWAVE 1.3 Market Analysis by Applications 1.3.1 Communication Equipment 1.3.2 Industrial Instrument 1.3.3 Other 1.4 Market Analysis by Regions 1.4.1 North America (USA, Canada and Mexico) 1.4.1.1 USA 1.4.1.2 Canada 1.4.1.3 Mexico 1.4.2 Europe (Germany, France, UK, Russia and Italy) 1.4.2.1 Germany 1.4.2.2 France 1.4.2.3 UK 1.4.2.4 Russia 1.4.2.5 Italy 1.4.3 Asia-Pacific (China, Japan, Korea, India and Southeast Asia) 1.4.3.1 China 1.4.3.2 Japan 1.4.3.3 Korea 1.4.3.4 India 1.4.3.5 Southeast Asia 1.4.4 Latin America, Middle East and Africa 1.4.4.1 Brazil 1.4.4.2 Egypt 1.4.4.3 Saudi Arabia 1.4.4.4 South Africa 1.4.4.5 Nigeria 1.5 Market Dynamics 1.5.1 Market Opportunities 1.5.2 Market Risk 1.5.3 Market Driving Force 2 Manufacturers Profiles 2.1 Epson 2.1.1 Business Overview 2.1.2 Voltage Controlled Crystal Oscillator Type and Applications 2.1.2.1 Type 1 2.1.2.2 Type 2 2.1.3 Epson Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.2 NDK America Inc. 2.2.1 Business Overview 2.2.2 Voltage Controlled Crystal Oscillator Type and Applications 2.2.2.1 Type 1 2.2.2.2 Type 2 2.2.3 NDK America Inc. Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.3 Vectron 2.3.1 Business Overview 2.3.2 Voltage Controlled Crystal Oscillator Type and Applications 2.3.2.1 Type 1 2.3.2.2 Type 2 2.3.3 Vectron Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.4 Crystek 2.4.1 Business Overview 2.4.2 Voltage Controlled Crystal Oscillator Type and Applications 2.4.2.1 Type 1 2.4.2.2 Type 2 2.4.3 Crystek Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.5 Bliley Technologies Inc. 2.5.1 Business Overview 2.5.2 Voltage Controlled Crystal Oscillator Type and Applications 2.5.2.1 Type 1 2.5.2.2 Type 2 2.5.3 Bliley Technologies Inc. Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.6 Abracon 2.6.1 Business Overview 2.6.2 Voltage Controlled Crystal Oscillator Type and Applications 2.6.2.1 Type 1 2.6.2.2 Type 2 2.6.3 Abracon Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.7 CTS 2.7.1 Business Overview 2.7.2 Voltage Controlled Crystal Oscillator Type and Applications 2.7.2.1 Type 1 2.7.2.2 Type 2 2.7.3 CTS Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.8 Pletronics 2.8.1 Business Overview 2.8.2 Voltage Controlled Crystal Oscillator Type and Applications 2.8.2.1 Type 1 2.8.2.2 Type 2 2.8.3 Pletronics Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.9 Rakon 2.9.1 Business Overview 2.9.2 Voltage Controlled Crystal Oscillator Type and Applications 2.9.2.1 Type 1 2.9.2.2 Type 2 2.9.3 Rakon Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.10 Microchip 2.10.1 Business Overview 2.10.2 Voltage Controlled Crystal Oscillator Type and Applications 2.10.2.1 Type 1 2.10.2.2 Type 2 2.10.3 Microchip Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.11 IDT(Integrated Device Technologies) 2.11.1 Business Overview 2.11.2 Voltage Controlled Crystal Oscillator Type and Applications 2.11.2.1 Type 1 2.11.2.2 Type 2 2.11.3 IDT(Integrated Device Technologies) Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.12 AVX 2.12.1 Business Overview 2.12.2 Voltage Controlled Crystal Oscillator Type and Applications 2.12.2.1 Type 1 2.12.2.2 Type 2 2.12.3 AVX Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.13 ON Semiconductor 2.13.1 Business Overview 2.13.2 Voltage Controlled Crystal Oscillator Type and Applications 2.13.2.1 Type 1 2.13.2.2 Type 2 2.13.3 ON Semiconductor Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.14 Silicon Laboratories 2.14.1 Business Overview 2.14.2 Voltage Controlled Crystal Oscillator Type and Applications 2.14.2.1 Type 1 2.14.2.2 Type 2 2.14.3 Silicon Laboratories Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.15 Ecliptek 2.15.1 Business Overview 2.15.2 Voltage Controlled Crystal Oscillator Type and Applications 2.15.2.1 Type 1 2.15.2.2 Type 2 2.15.3 Ecliptek Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.16 SiTime 2.16.1 Business Overview 2.16.2 Voltage Controlled Crystal Oscillator Type and Applications 2.16.2.1 Type 1 2.16.2.2 Type 2 2.16.3 SiTime Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.17 TXC Corporation 2.17.1 Business Overview 2.17.2 Voltage Controlled Crystal Oscillator Type and Applications 2.17.2.1 Type 1 2.17.2.2 Type 2 2.17.3 TXC Corporation Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.18 kyocera Kinseki 2.18.1 Business Overview 2.18.2 Voltage Controlled Crystal Oscillator Type and Applications 2.18.2.1 Type 1 2.18.2.2 Type 2 2.18.3 kyocera Kinseki Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.19 Bomar Crystal Company 2.19.1 Business Overview 2.19.2 Voltage Controlled Crystal Oscillator Type and Applications 2.19.2.1 Type 1 2.19.2.2 Type 2 2.19.3 Bomar Crystal Company Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.20 Cardinal Components 2.20.1 Business Overview 2.20.2 Voltage Controlled Crystal Oscillator Type and Applications 2.20.2.1 Type 1 2.20.2.2 Type 2 2.20.3 Cardinal Components Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.21 IQD Frequency Products 2.21.1 Business Overview 2.21.2 Voltage Controlled Crystal Oscillator Type and Applications 2.21.2.1 Type 1 2.21.2.2 Type 2 2.21.3 IQD Frequency Products Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.22 NEL Frequency Controls Inc. 2.22.1 Business Overview 2.22.2 Voltage Controlled Crystal Oscillator Type and Applications 2.22.2.1 Type 1 2.22.2.2 Type 2 2.22.3 NEL Frequency Controls Inc. Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 2.23 Taitien 2.23.1 Business Overview 2.23.2 Voltage Controlled Crystal Oscillator Type and Applications 2.23.2.1 Type 1 2.23.2.2 Type 2 2.23.3 Taitien Voltage Controlled Crystal Oscillator Sales, Price, Revenue, Gross Margin and Market Share 3 Global Voltage Controlled Crystal Oscillator Market Competition, by Manufacturer 3.1 Global Voltage Controlled Crystal Oscillator Sales and Market Share by Manufacturer 3.2 Global Voltage Controlled Crystal Oscillator Revenue and Market Share by Manufacturer 3.3 Market Concentration Rate 3.3.1 Top 3 Voltage Controlled Crystal Oscillator Manufacturer Market Share 3.3.2 Top 6 Voltage Controlled Crystal Oscillator Manufacturer Market Share 3.4 Market Competition Trend 4 Global Voltage Controlled Crystal Oscillator Market Analysis by Regions 4.1 Global Voltage Controlled Crystal Oscillator Sales, Revenue and Market Share by Regions 4.1.1 Global Voltage Controlled Crystal Oscillator Sales by Regions (2011-2016) 4.1.2 Global Voltage Controlled Crystal Oscillator Revenue by Regions (2011-2016) 4.2 North America Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 4.3 Europe Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 4.4 Asia-Pacific Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 4.5 Latin America Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 4.6 Middle East and Africa Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 5 North America Voltage Controlled Crystal Oscillator by Countries 5.1 North America Voltage Controlled Crystal Oscillator Sales, Revenue and Market Share by Countries 5.1.1 North America Voltage Controlled Crystal Oscillator Sales by Countries (2011-2016) 5.1.2 North America Voltage Controlled Crystal Oscillator Revenue by Countries (2011-2016) 5.2 USA Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 5.3 Canada Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 5.4 Mexico Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 6 Europe Voltage Controlled Crystal Oscillator by Countries 6.1 Europe Voltage Controlled Crystal Oscillator Sales, Revenue and Market Share by Countries 6.1.1 Europe Voltage Controlled Crystal Oscillator Sales by Countries (2011-2016) 6.1.2 Europe Voltage Controlled Crystal Oscillator Revenue by Countries (2011-2016) 6.2 Germany Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 6.3 UK Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 6.4 France Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 6.5 Russia Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 6.6 Italy Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 7 Asia-Pacific Voltage Controlled Crystal Oscillator by Countries 7.1 Asia-Pacific Voltage Controlled Crystal Oscillator Sales, Revenue and Market Share by Countries 7.1.1 Asia-Pacific Voltage Controlled Crystal Oscillator Sales by Countries (2011-2016) 7.1.2 Asia-Pacific Voltage Controlled Crystal Oscillator Revenue by Countries (2011-2016) 7.2 China Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 7.3 Japan Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 7.4 Korea Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 7.5 India Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 7.6 Southeast Asia Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 8 Latin America, Middle East and Africa Voltage Controlled Crystal Oscillator by Countries 8.1 Latin America, Middle East and Africa Voltage Controlled Crystal Oscillator Sales, Revenue and Market Share by Countries 8.1.1 Latin America, Middle East and Africa Voltage Controlled Crystal Oscillator Sales by Countries (2011-2016) 8.1.2 Latin America, Middle East and Africa Voltage Controlled Crystal Oscillator Revenue by Countries (2011-2016) 8.2 Brazil Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 8.3 Saudi Arabia Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 8.4 Egypt Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 8.5 Nigeria Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 8.6 South Africa Voltage Controlled Crystal Oscillator Sales and Growth (2011-2016) 9 Voltage Controlled Crystal Oscillator Market Segment by Type 9.1 Global Voltage Controlled Crystal Oscillator Sales, Revenue and Market Share by Type (2011-2016) 9.1.1 Global Voltage Controlled Crystal Oscillator Sales and Market Share by Type (2011-2016) 9.1.2 Global Voltage Controlled Crystal Oscillator Revenue and Market Share by Type (2011-2016) 9.2 Output PECL Sales Growth and Price 9.2.1 Global Output PECL Sales Growth (2011-2016) 9.2.2 Global Output PECL Price (2011-2016) 9.3 Output CMOS Sales Growth and Price 9.3.1 Global Output CMOS Sales Growth (2011-2016) 9.3.2 Global Output CMOS Price (2011-2016) 9.4 Output SINEWAVE Sales Growth and Price 9.4.1 Global Output SINEWAVE Sales Growth (2011-2016) 9.4.2 Global Output SINEWAVE Price (2011-2016) 10 Voltage Controlled Crystal Oscillator Market Segment by Application 10.1 Global Voltage Controlled Crystal Oscillator Sales Market Share by Application (2011-2016) 10.2 Communication Equipment Sales Growth (2011-2016) 10.3 Industrial Instrument Sales Growth (2011-2016) 10.4 Other Sales Growth (2011-2016) 10.5 Sales Growth (2011-2016) 11 Voltage Controlled Crystal Oscillator Market Forecast (2016-2021) 11.1 Global Voltage Controlled Crystal Oscillator Sales, Revenue and Growth Rate (2016-2021) 11.2 Voltage Controlled Crystal Oscillator Market Forecast by Regions (2016-2021) 11.3 Voltage Controlled Crystal Oscillator Market Forecast by Type (2016-2021) 11.4 Voltage Controlled Crystal Oscillator Market Forecast by Application (2016-2021) 12 Sales Channel, Distributors, Traders and Dealers 12.1 Sales Channel 12.1.1 Direct Marketing 12.1.2 Indirect Marketing 12.1.3 Marketing Channel Future Trend 12.2 Distributors, Traders and Dealers 13 Appendix 13.1 Methodology 13.2 Analyst Introduction 13.3 Data SourceList of Tables and Figures Get It Now @ https://www.wiseguyreports.com/checkout?currency=one_user-USD&report_id=721423


Qualified to AEC-Q200, the new Automotive Grade Accu-P Series SMD capacitors deliver the industry's tightest capacitive tolerances, in addition to exceptionally repeatable performance, extremely high stability, & remarkably low ESR & high Q at high frequencies FOUNTAIN INN, SC--(Marketwired - February 09, 2017) - AVX Corporation ( : AVX), a leading manufacturer and supplier of passive components and interconnect solutions, has released a new series of SMD thin film chip capacitors especially designed to meet demanding performance specifications in automotive signal and power applications. Qualified to AEC-Q200, AVX's new Automotive Grade Accu-P® Series capacitors deliver the tightest tolerances of any capacitor available on today's market (down to ±0.01pF), in addition to exceptionally repeatable performance, remarkably low ESR and high Q at high frequencies (including VHF, UHF, and RF bands), and extremely high stability with respect to temperature, time, frequency, and voltage variation when compared to ceramic capacitor technologies. Based on well-established thin film technology and materials, the new Automotive Grade Accu-P Series capacitors are also subjected to a litany of test and quality control procedures in accordance with ISO 9001, CECC, IECQ, and USA MIL -- including on-line process control procedures, accelerated life, dampness, and heat testing, and final quality inspections for capacitance, proof voltage, IR and breakdown voltage distribution, temperature coefficient, solderability, and dimensional, mechanical, and temperature stability -- which makes them ideal for use in automotive signal and power applications that require extremely high accuracy, such as: in-vehicle and vehicle-to-vehicle communications systems, vehicle location and alarm systems, GPS, in-cabin wireless LANs, and mobile communications including navigation, traffic information, and connected security systems. "Designed to exhibit ideal performance characteristics in high frequency signal and power applications, Accu-P Series capacitors virtually eliminate the variances in dielectric quality, electrode conductivity, and physical size that are inherent to ceramic capacitor technologies," said Larry Eisenberger, principal technical marketing engineer, AVX. "Named for the extreme accuracy they deliver in even demanding applications, Automotive Grade Accu-P Series SMD thin film chip capacitors feature high-purity electrodes for very low and repeatable ESR; high-purity, low-K dielectric for a high breakdown field, high IR, and low losses to frequencies above 40GHz; and very tight dimensional control for uniform unit-to-unit inductance." Automotive Grade Accu-P Series capacitors are currently available in three standard case sizes (0402, 0603, and 0805), six rated voltages (10V, 16V, 25V, 50V, 100V, and 200V), and two dielectric temperature coefficients (0±30ppm/°C and 0±60ppm/°C) with capacitance values spanning 0.05pF to 68pF, and capacitive tolerances from ±0.01pF to ±5%. Rated for use in operating temperatures spanning -55°C to +125°C, the ruggedly constructed series also offers four termination compositions, including RoHS compliant and lead-free compatible options, and nickel/solder-coated terminations that provide excellent solderability and leach resistance. Designed for soldering onto flexible or alumina circuit boards, Automotive Grade Accu-P Series capacitors can withstand the time and temperature profiles used in both wave and reflow soldering methods. Shipped on 7" or 13" reels, the components should be handled with plastic-tipped tweezers, vacuum pick-ups, or other pick-and-place machinery. Lead-time for the series is currently 10 weeks. For more information about AVX's new Automotive Grade Accu-P Series SMD thin film chip capacitors for automotive signal and power applications, please visit http://www.avx.com/products/rfmicrowave/capacitors/automotive-grade-accu-p/ to access the product datasheet, catalog, part number information, and design tools. For all other inquiries, please visit www.avx.com, call 864-967-2150, or write to One AVX Boulevard, Fountain Inn, S.C. 29644. AVX Corporation is a leading international manufacturer and supplier of electronic passive components and interconnect solutions with 20 manufacturing and warehouse facilities in 11 countries around the world. AVX offers a broad range of devices including capacitors, resistors, filters, timing and circuit protection devices, and connectors. The company is publicly traded on the New York Stock Exchange ( : AVX). A member of the Kyocera Group since 1990, AVX is also the only company authorized to supply Kyocera's electronic devices to the Americas and Europe. Established in 1959 and based in Kyoto, Japan, Kyocera Corporation is a leading international supplier of connectors, capacitors, ceramic resonators, surface acoustic wave (SAW) filters and duplexers, and crystal oscillators and timing devices.


Now featuring conformal, hermetic, & wet tantalum capacitor designs, as well as new SMD footprints & profiles, AVX's newly expanded library of 3D CAD models provides engineers with effective tools for reducing design cycle duration & cost FOUNTAIN INN, SC--(Marketwired - December 14, 2016) - AVX Corporation ( : AVX), a leading manufacturer and supplier of passive components and interconnect solutions, announces wide-ranging additions to its 3D model design tool for polymer, tantalum, and niobium oxide capacitors. Now featuring a broad range of 3D CAD drawings for conformal, hermetic, and wet tantalum capacitors, as well as new SMD footprints and profiles, the newly expanded 3D Model design library allows engineers to visually simulate and preemptively test PCB layout and ensure that populated PCBs will fit within planned enclosures. These capabilities effectively eliminate the need for 2D mockups and significantly reduce the risk of board redesign prior to fabrication, both of which enable reduced design cycle durations and valuable cost savings. New 3D models for AVX's polymer, tantalum, and niobium oxide capacitors are available free of charge as part of AVX's extensive set of design libraries and tools, and are made available as STEP files to facilitate their use in a variety of different CAD systems. "3D models are an essential design tool for electronics engineers. By allowing users to simulate component layouts in product designs much more accurately than 2D mockups before investing time and money into prototype manufacturing and testing, 3D CAD drawings help to conserve valuable resources and enable significantly more first-pass design successes. So, we're very pleased to provide our customers with a vastly expanded library of 3D models for our polymer, tantalum, and niobium oxide capacitors," said Chris Reynolds, technical marketing manager at AVX. For complementary access to AVX's design libraries and tools, including the newly expanded suite of 3D models, please visit http://www.avx.com/resources/design-tools/. For more information about AVX's conductive polymer, tantalum, and niobium oxide capacitors, please visit http://www.avx.com/resources/technical-info-papers/tantalum-niobium-capacitors/ to access relevant technical documents. For all other inquiries, please visit www.avx.com, call 864-967-2150, or write to One AVX Boulevard, Fountain Inn, S.C. 29644. About AVX AVX Corporation is a leading international manufacturer and supplier of electronic passive components and interconnect solutions with 20 manufacturing and warehouse facilities in 11 countries around the world. AVX offers a broad range of devices including capacitors, resistors, filters, timing and circuit protection devices, and connectors. The company is publicly traded on the New York Stock Exchange ( : AVX). A member of the Kyocera Group since 1990, AVX is also the only company authorized to supply Kyocera's electronic devices to the Americas and Europe. Established in 1959 and based in Kyoto, Japan, Kyocera Corporation is a leading international supplier of connectors, capacitors, ceramic resonators, surface acoustic wave (SAW) filters and duplexers, and crystal oscillators and timing devices.


News Article | December 6, 2016
Site: www.marketwired.com

Presented to AVX's Tianjin, China facility, which supplies AEC-Q200-qualified TransGuard® Automotive Series multilayer varistors to GM, the award recognizes AVX for its commitment to delivering excellent products & outstanding performance FOUNTAIN INN, SC--(Marketwired - December 06, 2016) - AVX Corporation ( : AVX), a leading manufacturer and supplier of passive components and interconnect solutions, received a 2015 Supplier Quality Excellence Award from General Motors. Presented to AVX's Tianjin, China facility, which manufactures the AEC-Q200-qualified TransGuard® Automotive Series multilayer varistors that the company supplies to GM, the award recognizes AVX for sustaining the highest levels of performance in each of 13 different categories, including zero defects in shipped products and 100% on-time delivery during calendar year 2015. AVX's TransGuard Automotive Series multilayer varistors (MLVs) combine circuit protection and EMI/RFI attenuation in a single, high-reliability device to both reduce component count and save critical board space in a variety of harsh automotive applications, including: inductive switching, DC motors, water and fuel pumps, and relays. "Our TransGuard Automotive Series varistors are designed to combine the highest levels of quality and performance for automotive customers, so we're grateful to have been publicly recognized by GM for meeting and exceeding their strict quality and performance criteria, and commend our Tianjin team for their commitment to successfully satisfying so many rigorous customer and automotive industry requirements," said Pete Venuto, vice president of sales, AVX. For more information about the wide range of AEC-Q200-qualified components AVX manufactures for modern automotive applications -- including AVX's TransGuard Automotive Series varistors, ESD-resistant MLCCs, NTC thermistors, and stacked multilayer varistor/MLCC devices -- please visit AVX's Automotive Industry Applications page at http://www.avx.com/industry-applications/automotive/. For all other inquiries, please visit www.avx.com, call 864-967-2150, or write to One AVX Boulevard, Fountain Inn, S.C. 29644. About AVX AVX Corporation is a leading international manufacturer and supplier of electronic passive components and interconnect solutions with 20 manufacturing and warehouse facilities in 11 countries around the world. AVX offers a broad range of devices including capacitors, resistors, filters, timing and circuit protection devices, and connectors. The company is publicly traded on the New York Stock Exchange ( : AVX). A member of the Kyocera Group since 1990, AVX is also the only company authorized to supply Kyocera's electronic devices to the Americas and Europe. Established in 1959 and based in Kyoto, Japan, Kyocera Corporation is a leading international supplier of connectors, capacitors, ceramic resonators, surface acoustic wave (SAW) filters and duplexers, and crystal oscillators and timing devices.


Market Research Report on Paper & Plastic Film Capacitors market 2016 is a professional and in-depth study on the current state of the Paper & Plastic Film Capacitors worldwide. First of all,"Global Paper & Plastic Film Capacitors Market 2016" report provides a basic overview of the Paper & Plastic Film Capacitors industry including definitions, classifications, applications and Paper & Plastic Film Capacitors industry chain structure. The analysis is provided for the Paper & Plastic Film Capacitors international market including development history, Paper & Plastic Film Capacitors industry competitive landscape analysis.  This report "Worldwide Paper & Plastic Film Capacitors Market 2016" also states import/export, supply and consumption figures and Paper & Plastic Film Capacitors market cost, price, revenue and Paper & Plastic Film Capacitors market's gross margin by regions (United States, EU, China and Japan), as well as other regions can be added in Paper & Plastic Film Capacitors Market area. Major Manufacturers are covered in this research report are AEROVOX AMRAD ENGINEERING ANHUI SAFE ELECTRONICS ARCOTRONICS ITALIA SPA AVX/KYOCERA CORPORATION BC COMPONENTS BOLLORé GROUP BOREALIS POLYMERS BYCAP INCORPORATED CAPACITOR INDUSTRIES CHICAGO CONDENSER CORPORATION COMAR CONDENSATORI SPA This report studies Paper & Plastic Film Capacitors in Global market, especially in North America, Europe, China, Japan, Southeast Asia and India, focuses on top manufacturers in global market, with sales, price, revenue and market share. Then, the report focuses on worldwide Paper & Plastic Film Capacitors market key players with information such as company profiles with product picture as well as specification. Related information to Paper & Plastic Film Capacitors market- capacity, production, price, cost, revenue and contact information. Aslo includes Paper & Plastic Film Capacitors industry's - Upstream raw materials, equipment and downstream consumers analysis is also carried out. What’s more, the Paper & Plastic Film Capacitors market development trends and Paper & Plastic Film Capacitors industry marketing channels are analyzed. Finally, "Worldwide Paper & Plastic Film Capacitors Market" Analysis- feasibility of new investment projects is assessed, and overall research conclusions are offered.


News Article | November 7, 2016
Site: www.newsmaker.com.au

Notes: Production, means the output of Thermistor Revenue, means the sales value of Thermistor This report studies Thermistor in Global market, especially in North America, Europe, China, Japan, Korea and Taiwan, focuses on top manufacturers in global market, with production, price, revenue and market share for each manufacturer, covering Omega SEMITEC ROHM Uniroyal Panasonic Vishay EPCOS AVX MURATA SUBARA MITSUBISH Shiheng Group THINKING YAGEO Market Segment by Regions, this report splits Global into several key Regions, with production, consumption, revenue, market share and growth rate of Thermistor in these regions, from 2011 to 2021 (forecast), like North America Europe China Japan Korea Taiwan Would like to place an order @ https://www.wiseguyreports.com/checkout?currency=one_user-USD&report_id=725905 Split by product type, with production, revenue, price, market share and growth rate of each type, can be divided into Type I Type II Type III Split by application, this report focuses on consumption, market share and growth rate of Thermistor in each application, can be divided into Application 1 Application 2 Application 3 Global Thermistor Market Research Report 2016 1 Thermistor Market Overview 1.1 Product Overview and Scope of Thermistor 1.2 Thermistor Segment by Type 1.2.1 Global Production Market Share of Thermistor by Type in 2015 1.2.2 Type I 1.2.3 Type II 1.2.4 Type III 1.3 Thermistor Segment by Application 1.3.1 Thermistor Consumption Market Share by Application in 2015 1.3.2 Application 1 1.3.3 Application 2 1.3.4 Application 3 1.4 Thermistor Market by Region 1.4.1 North America Status and Prospect (2011-2021) 1.4.2 Europe Status and Prospect (2011-2021) 1.4.3 China Status and Prospect (2011-2021) 1.4.4 Japan Status and Prospect (2011-2021) 1.4.5 Korea Status and Prospect (2011-2021) 1.4.6 Taiwan Status and Prospect (2011-2021) 1.5 Global Market Size (Value) of Thermistor (2011-2021) 2 Global Thermistor Market Competition by Manufacturers 2.1 Global Thermistor Production and Share by Manufacturers (2015 and 2016) 2.2 Global Thermistor Revenue and Share by Manufacturers (2015 and 2016) 2.3 Global Thermistor Average Price by Manufacturers (2015 and 2016) 2.4 Manufacturers Thermistor Manufacturing Base Distribution, Sales Area and Product Type 2.5 Thermistor Market Competitive Situation and Trends 2.5.1 Thermistor Market Concentration Rate 2.5.2 Thermistor Market Share of Top 3 and Top 5 Manufacturers 2.5.3 Mergers & Acquisitions, Expansion 3 Global Thermistor Production, Revenue (Value) by Region (2011-2016) 3.1 Global Thermistor Production by Region (2011-2016) 3.2 Global Thermistor Production Market Share by Region (2011-2016) 3.3 Global Thermistor Revenue (Value) and Market Share by Region (2011-2016) 3.4 Global Thermistor Production, Revenue, Price and Gross Margin (2011-2016) 3.5 North America Thermistor Production, Revenue, Price and Gross Margin (2011-2016) 3.6 Europe Thermistor Production, Revenue, Price and Gross Margin (2011-2016) 3.7 China Thermistor Production, Revenue, Price and Gross Margin (2011-2016) 3.8 Japan Thermistor Production, Revenue, Price and Gross Margin (2011-2016) 3.9 Korea Thermistor Production, Revenue, Price and Gross Margin (2011-2016) 3.10 Taiwan Thermistor Production, Revenue, Price and Gross Margin (2011-2016) 4 Global Thermistor Supply (Production), Consumption, Export, Import by Regions (2011-2016) 4.1 Global Thermistor Consumption by Regions (2011-2016) 4.2 North America Thermistor Production, Consumption, Export, Import by Regions (2011-2016) 4.3 Europe Thermistor Production, Consumption, Export, Import by Regions (2011-2016) 4.4 China Thermistor Production, Consumption, Export, Import by Regions (2011-2016) 4.5 Japan Thermistor Production, Consumption, Export, Import by Regions (2011-2016) 4.6 Korea Thermistor Production, Consumption, Export, Import by Regions (2011-2016) 4.7 Taiwan Thermistor Production, Consumption, Export, Import by Regions (2011-2016) 5 Global Thermistor Production, Revenue (Value), Price Trend by Type 5.1 Global Thermistor Production and Market Share by Type (2011-2016) 5.2 Global Thermistor Revenue and Market Share by Type (2011-2016) 5.3 Global Thermistor Price by Type (2011-2016) 5.4 Global Thermistor Production Growth by Type (2011-2016) 6 Global Thermistor Market Analysis by Application 6.1 Global Thermistor Consumption and Market Share by Application (2011-2016) 6.2 Global Thermistor Consumption Growth Rate by Application (2011-2016) 6.3 Market Drivers and Opportunities 6.3.1 Potential Applications 6.3.2 Emerging Markets/Countries

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