Field Programmable Gate Array Market By Technology 2021 | IndustryARC
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Field Programmable Gate Array Market
Field Programmable Gate Array (FPGA) Market - By Technology (SRAM, ANTIFUSE, EPROM, EEPROM); By Memory (Distributed Memory, Block Memory); By Applications (Industrial, Medical, Communications, Aerospace & Defense) & Geography- Forecast (2016-2021)
Report Code : ITR 0034
Updated Date: 09 February, 2016  

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  • Report Description
  • Table of Contents
  • Customization Options
1. Market Overview
2. Executive Summary
3. FPGA Market Landscape

   3.1. Market Share Analysis
   3.2. Comparative Analysis
      3.2.1. Product Benchmarking
      3.2.2. End User Profiling
      3.2.3. Top 5 Financials
4. FPGA Market Forces
   4.1. Market Drivers
   4.2. Market Constraints
   4.3. Market Challenges
   4.4. Attractiveness Of The FPGA Industry
      4.4.1. Power Of Suppliers
      4.4.2. Threats From New Entrants
      4.4.3. Power Of Buyer
      4.4.4. Threat From Substitute Product
      4.4.5. Degree Of Competition
5. FPGA Market-Strategic Analysis
   5.1. FPGA Market - Value Chain Analysis
   5.2. Pricing Analysis
   5.3. Product Life Cycle
   5.4. Suppliers And Distributors
   5.5. Opportunity Analysis
6. FPGA Market- By Type
   6.1. Introduction
   6.2. High-End FPGA
   6.3. Mid-End FPGA
   6.4. Low-End FPGA
7. FPGA Market-By Technology
   7.1. Introduction
   7.2. SRAM
   7.3. Anti-Fuse
   7.4. Fuse
   7.5. Flash-based/ EEPROM
   7.6. EPROM
   7.7. Others
8. FPGA Market-By Functional Blocks
   8.1. Introduction
   8.2. Logic Blocks
      8.2.1. Transistor Pairs
      8.2.2. Combinational Gates
      8.2.3. N-Input Lookup Tables
      8.2.4. Multiplexers
      8.2.5. Others
   8.3. Routing
9. FPGA Market-By Memory
   9.1. Introduction
   9.2. Distributed Memory
   9.3. Block Memory
10. FPGA Market-By Applications
   10.1. Aerospace And Defence
   10.2. Wired Communications
   10.3. Wireless Communication
   10.4. Multimedia
   10.5. Broadcasting
   10.6. Automotive Systems
   10.7. Consumer Electronics
   10.8. Video & Image Processing
   10.9. Industrial
   10.10. Others
11. FPGA Market-By Geography
   11.1. North America
      11.1.1. U.S.
      11.1.2. Canada
      11.1.3. Mexico
   11.2. Europe
      11.2.1. U.K.
      11.2.2. Germany
      11.2.3. France
      11.2.4. Rest of Europe
   11.3. Asia - pacific (APAC )
      11.3.1. China
      11.3.2. Japan
      11.3.3. ANZ
      11.3.4. Rest of APAC
   11.4. Rest of The World (ROW)
      11.4.1. South America
      11.4.2. Africa
      11.4.3. Middle East
12. FPGA Market Entropy
   12.1. New Product Developments
   12.2. Mergers and acquisitions
13. Company Profiles
   13.1. Welkin Sciences LLC
   13.2. Xess Corp.
   13.3. Xilinx, Inc.
   13.4. United Microelectronics Corporation
   13.5. Stretch Inc.
   13.6. S2c Inc.
   13.7. Tabula
   13.8. TEK Microsystems Inc.
   13.9. Orange Tree Technologies Ltd.
   13.10. Pentek Inc.
   13.11. Presco Inc.
   13.12. Quick Logic Corp.
   13.13. Red Pitaya
   13.14. Mercury Computer
   13.15. Microsemi Corp.
   13.16. Nallatech Inc.
   13.17. Achronix Semiconductor Corporation
   13.18. Acromag Inc.
   13.19. Actel Corp.
   13.20. Altera Corp.
   13.21. Ambric Technology Corp.
   13.22. BEE Cube Inc.
   13.23. Bittware Inc.
   13.24. Connect Tech Inc.
   13.25. Curtiss-Wright Controls Embedded Computing
   13.26. DLP Design Inc.
   13.27. E2v Technologies
   13.28. Elliptic Technologies
   13.29. GE Intelligent Platforms
   13.30. Inicore Inc.
   13.31. Inrevium
   13.32. Jacyl Technology
*More than 10 Companies are profiled in this Research Report*
"*Financials would be provided on a best efforts basis for private companies"

14. Appendix
   14.1. List of Abbreviations
   14.2. Sources
   14.3. Research Methodology
   14.4. Expert Insights 
   14.5. Disclaimer
Field Programmable Gate Arrays (FPGA) consists of a matrix of configurable logic blocks (CLBs) connected through interconnects which are programmable. Based on end-use application and functionality requirements, FPGAs can be reprogrammed once they are manufactured. The provision to reprogram FPGAs distinguishes them from Application Specific Integrated Circuits (ASICs) as ASICs are custom manufactured for specific design tasks. Although one-time programmable (OTP) FPGAs are available, the overall FPGAs is dominated SRAM based which can be reprogrammed.

In a single integrated circuit (IC) chip of FPGA, millions of logic gates can be incorporated. Hence, a single FPGA can replace thousands of discrete components. Due to their programmable nature, FPGAs are an ideal fit for many different markets. Ever-changing technology combined with introduction of new product portfolio is the major drivers for this industry.

Owing to benefits such as increasing the performance, early time to market, replacing glue logic, reducing number of PCB spins, and reducing number of parts of PCB, field programmable gate arrays (FPGA’s) are being used in many CPU’s. Industrial networking, industrial motor control, industrial control applications, machine vision, video surveillance make use of different families of FPGA’s.

Field Programmable Gate Array (FPGA) Market

The global market for Field programmable gate array was estimated to be $XX billion in 2015. The global market for FPGA is estimated to grow at a CAGR of XX% and is forecast to reach $XX billion by 2021. North America and Europe alone are estimated to occupy a share of more than XX% during 2016-2021.

North America is the leading market for field programmable gate arrays with U.S. leading the charge followed by Europe. North America region is forecast to have highest growth in the next few years due to growing adoption of field programmable gate arrays .North America field programmable gate array market accounts to XX% of the global market for FPGA’s .

Sample Companies Profiled in this Report are:
  • Xilinx Inc. (U.S.)
  • Altera Corporation (U.S.)
  • Microsemi Corporation (U.S.)
  • Lattice Semiconductor (U.S.)
  • Achronix Semiconductor Corporation (U.S.)
  • 10+.

Field Programmable Gate Arrays (FPGA’s) Beam up Next Generation Radio Astronomy 

FPGAs are important in radio astronomy as they are able to meet the high performance requirements required while maintaining flexibility and relatively low cost.

An interesting reported application in the field of radio astronomy is a billion-channel spectrometer used in the Search for Extraterrestrial Intelligence (SETI) project at the University of California at Berkeley and implemented on a BEE2 system. A 16 Gbps, 800 MHz bandwidth input is passed through a 128 tap, 4 channel polyphase filter bank (PFB) on the control FPGA and split into 4 200 MHz bandwidth streams. Each stream is handled by a compute FPGA which implements a 256 million channel spectrometer with 0.745 Hz resolution. The spectrometer’s processing includes an 8K channel PFB, data reordering, 32K point fast Fourier transform (FFT) and power spectrum computation. Each FPGA performs 29.4 GMACs (billion multiply-adds per second).

The other important development of radio astronomy is an advanced telescope called ASKAP, for which Researchers in Australia are using Virtex-6 FPGAs to economically meet the demanding requirements of an advanced telescope. Therefore, with the advances in the radio astronomy the scope of field programmable gate arrays is increasing.
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