FPGA Market

FPGA Market with COVID-19 Impact Analysis by Configuration (Low-End FPGA, Mid-Range FPGA, High-End FPGA), Technology (SRAM, Flash, Antifuse), Node Size (≤16 nm, 22/28–90 nm, and >90 nm), Vertical, and Region - Global - Forecast to 2026

Report Code: SE 3058 Jul, 2021, by marketsandmarkets.com

[249 Pages Report] The global FPGA market is projected to reach USD 9.1 billion by 2026 from an estimated USD 6.2 billion in 2021, at a CAGR of 7.8% from 2021 to 2026. The rising deployment of data centers and high-performance computing, and incorporation of FPGA for automotive applications such as ADAS are among the factors driving the growth of the FPGA market.

FPGA Market

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COVID-19 Impact on the Global FPGA Market

The outbreak and the spread of the COVID-19 had a negative effect on the FPGA market in 2020, resulting in decreased shipments of FPGA. This resulted in the declined revenues generated from them. As a result, a dip was witnessed in the growth trend of the market during the first half of 2020. This trend continued to prevail till the first quarter of 2021. The demand for FPGAs is expected to surge as the production volume and the demand for telecommunication, data centers, and automotive products and solutions such as wireless baseband solutions, radio solutions, wireless modems, network processing cards, and electronic devices, is expected to increase in the second or third quarter of 2021.

Market Dynamics:

Driver: Rising deployment of data centers and high-performance computing

Data centers are imperative for the adoption of IoT as they process data from millions of devices and sensors to carry out highly optimized autonomous operations. FPGAs are making their way into data centers where they are used to offload and accelerate specific services. Intel FPGAs are used to improve the throughput, response time, and energy efficiency of 5G applications, high-performance computing, and ADAS by offloading computing workloads from the central processing units (CPU) of servers. The development of CPU and graphics processing units (GPU) by US-based Advanced Micro Devices, Inc. (AMD) and artificial intelligence integrated with FPGAs by US-based NVIDIA Corporation have led to enhanced growth opportunities for FPGA manufacturers in the data center space. China-based Baidu, Inc. has deployed Xilinx FPGA in its data centers for machine learning applications such as image and speech recognition. FPGA can enhance the performance of machine learning, cloud radio access networks, edge-computing, and content delivery applications. The significant increase in demand for data centers owing to the rising incorporation of IoT in different verticals is expected to contribute to the demand for FPGAs to improve the computational performance of data centers.

The hardware acceleration capabilities of FPGAs have also made them suitable for high-performance computing (HPC) applications. These applications require superior performance than provided by existing processors. The use of FPGAs addresses performance, productivity, power, and price issues of HPC applications. They offer low-cost hardware and enable algorithm acceleration and are easy to configure and install. The increasing requirement for efficient computing, enhanced scalability, improved reliability and storage, and adoption of HPC in the cloud is expected to create growth opportunities for the FPGA market.

HPC is helping to solve a range of problems for the military and aerospace. It is used for satellite imaging and in unmanned aerial vehicle (UAV) feeds that require FPGAs. These FPGAs offer high computational power to process large amounts of data.Hence, the rising deployment of data centers and high-performance computing are propelling the growth of the FPGA market.

Restraint: Hidden bugs make FPGAs vulnerable to security attacks

FPGAs are vulnerable to security attacks because of a critical bug in their hardware that can help hackers to gain complete control over chips and steal key data. In comparison to traditional hardware chips with fixed functionalities, FPGA chips have the advantage of being reprogrammable. The 'bitstream' is a file used to program the FPGA. In order to protect it from security attacks, the bitstream is secured by encryption methods. The encryption can be easily controlled by manipulating the bitstream during the configuration process. If an attacker gains access to the bitstream, he also gains complete control over the FPGA. Intellectual properties included in the bitstream can be stolen. It is also possible to insert hardware Trojans into the FPGA by manipulating the bitstream. This kind of attack can be carried out remotely; the attacker does not even need physical access to the FPGA.

As FPGA technology has become more efficient in terms of size, performance, and power, there is a requirement for superior and advanced security techniques to prevent security attacks. This could act as a restraint for the adoption of FPGAs.

Opportunity: Developments in 5G networking infrastructure

5G is the 5th generation mobile network. It is a new global wireless technology meant to deliver higher multi-Gbps peak data speeds, ultra-low latency, more reliability, massive network capacity, increased availability, and a more uniform user experience to more users. Higher performance and improved efficiency empower new user experiences and help connect new industries. Developments in 5G network infrastructures are expected to create significant growth opportunities for the FPGA market in the near future.

5G NR is the new air interface for 5G networks. Many current 5G network architectures deploy NR radio heads in base stations with massive multiple-input, multiple-output (MIMO) antennas that use multiple transmitters and receivers to transfer more data, more quickly. Such infrastructure can support various access and connectivity scenarios for applications like enhanced mobile broadband (eMBB), massive machine-type communications (mMTC), and ultra-reliable low-latency communications (URLLC). The base station hardware must be able to accommodate the broad requirements of 5G network workloads. This is driving increased interest in FPGA technology across the next-generation wireless infrastructure.

Companies see huge growth potential in 5G technology and are manufacturing FPGAs focusing on the 5G interface. For instance, Xilinx Inc. introduced its Zynq UltraScale+ RFSoC product line that, targets the 5G wireless RF signal chain and is used in remote radio heads for massive MIMO, baseband, and wireless backhaul systems.

Challenge: Highly complex programming

FPGAs can be used to create reconfigurable accelerators with lower latency and better efficiency. However, while FPGAs offer benefits such as increased efficiency, flexibility, and programmability, they can be difficult to program and manage. The deployment of FPGAs requires integration into data center infrastructure. Hence, when required in large volumes, FPGAs are expensive and difficult to program and deploy to data center infrastructure.

FPGAs are however becoming more widely available as part of infrastructure-as-a-service offerings from leading companies. FPGA providers are offering optimized FPGA libraries for integration into customers’ applications like cloud services, and aerospace via marketplace. This eliminates the need for application developers to learn the skills required to program FPGAs effectively. However, application developers must also incorporate these libraries into their frameworks and manage FPGA resources. The complex process of programming and integration into data center infrastructure is contributing to increased demand for efficient techniques to manage FPGAs; this can hinder the adoption of FPGAs.

The low-end segment held the major share of the FPGA market, in 2020.

In 2020, low-end FPGA segment held the largest share of the FPGA market, and a similar trend is likely to be observed during the forecast period. Low-logic density, reduced complexity, and high energy efficiency are some of the key factors contributing to the growth of the low-end FPGA segment. Key players involved in the FPGA ecosystem are adopting organic growth strategies to strengthen their low-end FPGA product portfolio. Low-end FPGAs have low power consumption and offer an increased number of functionalities at minimum costs. They also provide design security and protection against tampering, reverse engineering, and cloning. Low-end FPGAs are used in automotive, consumer electronics, displays, industrial, military, video and image processing, and wireless applications.

The market for ≤ 16 nm segment is expected to grow at the highest CAGR during the forecast period

The ≤ 16 nm segment of the market is projected to record the highest CAGR from 2021 to 2026. The key factor contributing to the growth of this segment is the increased adoption of FPGA with ≤ 16 nm node size across the world owing to their low power consumption, as well as the ease of upgrading and reprogramming them remotely. Adoption of the ≤ 16 nm node size FPGA in high-end applications such as edge computing, 5G networking, data centers, and AI has also reinforced the growth of this segment of the market. FPGA manufacturers are focusing on developing FPGAs with node size ≤ 16 nm. FPGAs with node size of ≤ 16 nm act as adaptive logic modules and transceivers. They offer design security and remote system upgrades. FPGAs with node size of ≤ 16 nm are compact, consume less power, and can be used in a range of applications.

The SRAM segment held the major share of the FPGA market, in 2020.

In 2020, the SRAM segment held the largest share of the FPGA market, and this trend is projected to continue during the forecast period. SRAM is the most commonly used technology for programming FPGAs as it enables their easy reconfiguration. SRAM-based FPGAs are developed through the CMOS fabrication process that enables improved power efficiency and higher logic density compared to other technologies; this is driving the growth of the market. The wide adoption of SRAM-based FPGAs in military & aerospace applications, telecom & wireless communication systems, and consumer goods is also contributing to the segment growth.

The data centers & computing segment of the FPGA market is projected to grow at the highest CAGR from 2021 to 2026

The data centers & computing segment of the market is projected to record the highest CAGR from 2021 to 2026. The growth of this segment can be attributed to the ongoing adoption of high-performance computing (HPC) in cloud storage and increasing technological developments in the field of machine learning, artificial intelligence, and deep learning. This, in turn, increases data traffic across networks, thereby leading to significant demand for FPGAs. FPGAs are used to accelerate the performance of large-scale data centers. They enable high speed data processing by providing high bandwidth, and low-latency connections to storage systems and networks. FPGAs also provide data filtering, compression, and acceleration in algorithm. The growing adoption of cloud-based computing and its dependency on data centers is also expected to contribute to the growth of this segment of the market during the forecast period.

FPGA Market  by Region

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APAC held the largest share of the FPGA market in 2020

APAC is projected to dominate the FPGA market during the forecast period. The growth of the market in this region can be attributed to the increasing Internet penetration, ongoing technological advancements such as the advent of 4G and 5G, and growing data traffic due to the rising number of technologically advanced consumer electronic devices and connected device users. Major semiconductor foundries, offering manifesting services to FPGA companies have a strong presence in the region. The telecommunications, industrial, automotive, consumer electronics, and computing sectors are expected to drive the growth of the FPGA market in APAC. The increased adoption of industrial automation in APAC is also driving the demand for FPGAs in the region. With the advent of IoT and machine-to-machine (M2M), the growth of the automotive and the consumer electronics industries in APAC is expected to be high, thereby contributing to the growth of the FPGA market in the region.

Key Market Players

Xilinx, Inc. (US); Intel Corporation (US); Microchip Technology Inc. (US); Lattice Semiconductor Corporation (US); QuickLogic Corporation (US); Efinix Inc. (US); Flex Logix Technologies (US); GOWIN Semiconductor Corporation (US); Achronix Semiconductor Corporation (US); and S2C, Inc. (US); are some of the key players in the FPGA market.

Scope of the Report

Report Metric

Detail

Market Size Availability for Years

2017–2026

Base Year

2020

Forecast Period

2021–2026

Forecast Units

Value (USD)

Segments Covered

By configuration, node size, technology, vertical, and region

Geographies Covered

North America, Europe, APAC, and RoW

Companies Covered

Xilinx, Inc. (US); Intel Corporation (US); Microchip Technology Inc. (US); Lattice Semiconductor Corporation (US); QuickLogic Corporation (US); Efinix Inc. (US); Flex Logix Technologies (US); GOWIN Semiconductor Corporation (US); Achronix Semiconductor Corporation (US); and S2C, Inc. (US); are some of the key players in the FPGA market.
A total of 25 players are covered.

This research report categorizes the FPGA market based on product, material, application, and region

FPGA Market:

Based on Configuration:

  • Low-End FPGA
  • Mid-Range FPGA
  • High-End FPGA

Based on node size:

  • ≤16 NM
  • 22/28-90 NM
  • >90 NM

Based on technology:

  • SRAM
  • Flash
  • Antifuse

Based on vertical:

  • Telecommunications
    • Wired Communication
    • Optical Transport Network (OTN)
    • Backhaul and Access Network
    • Network Processing
    • Wired Connectivity
    • Packet-based Processing and Switching
    • Wireless Communication
    • Wireless Baseband Solutions
    • Wireless Backhaul Solutions
    • Radio Solutions
    • 5G
  • Consumer Electronics
  • Test, Measurement & Emulation
  • Data Centers & Computing
    • Storage Interface Controls
    • Network Interface Controls
    • Hardware Acceleration
    • High-Performance Computing
  • Military & Aerospace
    • Avionics
    • Missiles and Munition
    • Radars and Sensors
    • Others
  • Industrial
    • Video Surveillance Systems
    • Machine Vision Solutions
    • Industrial Networking Solutions
    • Industrial Motor Control Solutions
    • Robotics
    • Industrial Sensors
  • Automotive
    • ADAS
    • Automotive Infotainment and Driver Information Systems
    • Sensor Fusion
  • Healthcare
    • Imaging Diagnostic Systems
      • Ultrasound Machines
      • CT Scanners
      • MRI Machines
      • X-Ray Machines
    • Wearable Devices
    • Others
  • Multimedia
    • Audio Devices
    • Video Processing
  • Broadcasting
    • Broadcast Platform Systems
    • High-End Broadcast Systems

Based on region:

  • North America
    • US
    • Canada
    • Mexico
  • Europe
    • Germany
    • UK
    • France
    • Rest of Europe
  • Asia Pacific
    • China
    • Japan
    • India
    • Rest of APAC
  • Rest of the world
    • Middle East
    • South America
    • Africa

Recent Developments

  • In May 2021, GOWIN Semiconductor Corporation launched the USB 2.0 Interfacing Solution, which allows designers to simply implement USB 2.0 connectivity without the need for additional silicon devices.
  • In April 2021, Xilinx, Inc. and Mavenir announced that they are working together to bring a combined 4G/5G O-RAN massive MIMO (mMIMO) portfolio to market to support Open RAN deployments. The first mMIMO 64TRX joint solution is expected to be available in Q4 2021.
  • In March 2021, Lattice Semiconductor Corporation expanded its product portfolio by adding new members to its Lattice CrossLink-NX FPGA family. The newly launched products will benefit automotive applications such as advanced driver assistance systems (ADAS) and in-vehicle infotainment (IVI) systems.
  • In March 2021, Intel Corporation, along with researchers from the University of Florida, University of Maryland, and Texas A&M, have joined the Structured Array Hardware for Automatically Realized Applications (SAHARA) initiative. Defense Advanced Research Projects Agency (DARPA), Intel, and the universities will work to automate the conversion process and add supply chain chip protections. Intel will expand its domestic chip manufacturing capabilities, which have been flagging for commercial chips, to now develop the Structured ASICs on their 10 nm process.
  • In December 2020, Lattice Semiconductor Corporation launched the Lattice Mach-NX FPGA family, the second generation of secure control FPGAs. Mach-NX FPGAs will be used in future server platforms, as well as computing, communications, industrial, and automotive systems, to provide enhanced security and quick, power-efficient processing.
  • In October 2020, Xilinx Inc. released Zynq RFSoC DFE, a new class of adaptive radio platforms. The new class is designed to meet the emerging standards of 5G NR wireless applications. It offers versatility, scalability, and time-to-market advantages of a programmable and adaptive SoC.

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TABLE OF CONTENTS

1 INTRODUCTION (Page No. - 27)
    1.1 STUDY OBJECTIVES
    1.2 MARKET DEFINITION AND SCOPE
           1.2.1 INCLUSIONS AND EXCLUSIONS
    1.3 SCOPE
           1.3.1 YEARS CONSIDERED
    1.4 CURRENCY
    1.5 MARKET STAKEHOLDERS
    1.6 SUMMARY OF CHANGES

2 RESEARCH METHODOLOGY (Page No. - 31)
    2.1 RESEARCH DATA
           2.1.1 SECONDARY DATA
                    2.1.1.1 List of key secondary sources
                    2.1.1.2 Secondary sources
           2.1.2 PRIMARY DATA
                    2.1.2.1 Breakdown of primaries
                    2.1.2.2 Primary sources
                    2.1.2.3 Key industry insights
    2.2 FACTOR ANALYSIS
    2.3 MARKET SIZE ESTIMATION
           2.3.1 BOTTOM-UP APPROACH
                    2.3.1.1 Approach for capturing market share using bottom-up analysis (demand side)
           2.3.2 TOP-DOWN APPROACH
                    2.3.2.1 Estimating market size using top-down analysis (supply side)
    2.4 MARKET BREAKDOWN AND DATA TRIANGULATION
    2.5 RESEARCH ASSUMPTIONS AND LIMITATIONS
           2.5.1 RESEARCH ASSUMPTIONS
           2.5.2 LIMITATIONS

3 EXECUTIVE SUMMARY (Page No. - 44)
    3.1 IMPACT OF COVID-19 ON FPGA MARKET
           TABLE 1 RECOVERY SCENARIOS FOR GLOBAL ECONOMY
    3.2 REALISTIC SCENARIO
    3.3 OPTIMISTIC SCENARIO
    3.4 PESSIMISTIC SCENARIO

4 PREMIUM INSIGHTS (Page No. - 52)
    4.1 ATTRACTIVE GROWTH OPPORTUNITIES IN FPGA MARKET
    4.2 FPGA MARKET, BY TECHNOLOGY
    4.3 FPGA MARKET, BY NODE SIZE AND CONFIGURATION
    4.4 FPGA MARKET, BY REGION
    4.5 FPGA MARKET, BY COUNTRY

5 MARKET OVERVIEW (Page No. - 55)
    5.1 INTRODUCTION
    5.2 MARKET DYNAMICS
           5.2.1 DRIVERS
                    5.2.1.1 Increase in global adoption of AI and IoT
                    5.2.1.2 Incorporation of FPGAs in ADAS
                    5.2.1.3 Rising deployment of data centers and high-performance computing (HPC)
                    5.2.1.4 Growing need for FPGA hardware verification in avionics
           5.2.2 RESTRAINTS
                    5.2.2.1 Hidden bugs make FPGAs vulnerable to security attacks
           5.2.3 OPPORTUNITIES
                    5.2.3.1 Developments in 5G networking infrastructure
                    5.2.3.2 Surge in demand for high bandwidth devices for high-end applications
                    5.2.3.3 Rising adoption of eFPGAs in military and aerospace sector
           5.2.4 CHALLENGES
                    5.2.4.1 Highly complex programming
                    5.2.4.2 Lack of improved and standardized verification techniques
    5.3 SUPPLY CHAIN ANALYSIS
           TABLE 2 FPGA: ROLE IN SUPPLY CHAIN
    5.4 TRENDS/DISRUPTIONS IMPACTING CUSTOMERS’ BUSINESS
           5.4.1 REVENUE SHIFT AND NEW REVENUE POCKETS FOR FPGA MARKET
    5.5 FPGA ECOSYSTEM
    5.6 PORTER’S FIVE FORCES MODEL
           TABLE 3 FPGA MARKET: PORTER’S FIVE FORCES ANALYSIS
           5.6.1 THREAT OF NEW ENTRANTS
           5.6.2 THREAT OF SUBSTITUTES
           5.6.3 BARGAINING POWER OF SUPPLIERS
           5.6.4 BARGAINING POWER OF BUYERS
           5.6.5 INTENSITY OF COMPETITION
    5.7 CASE STUDY
           5.7.1 FPGA COMPLIANT AEROSPACE DESIGN – I.T. DEV LIMITED
           5.7.2 LIGHTWEIGHT RADAR SYSTEMS FOR UNMANNED AERIAL VEHICLES AND MANNED SYSTEMS – BITTWARE
           5.7.3 ARTIFICIAL INTELLIGENCE ACCELERATES DARK MATTER SEARCH – XILINX, INC.
    5.8 TECHNOLOGY ANALYSIS
           5.8.1 COMPLEMENTARY TECHNOLOGIES
                    5.8.1.1 Complex programmable logic device (CPLD)
           5.8.2 ADJACENT TECHNOLOGIES
                    5.8.2.1 Application specific integrated circuit (ASIC)
    5.9 AVERAGE SELLING PRICE FOR FPGAS
           TABLE 4 AVERAGE SELLING PRICE FOR FPGAS, BY CONFIGURATION
    5.10 TRADE ANALYSIS
           TABLE 5 IMPORT DATA, BY COUNTRY, 2016–2020 (USD MILLION)
           TABLE 6 EXPORT DATA, BY COUNTRY, 2016–2020 (USD MILLION)
    5.11 PATENT ANALYSIS, 2019–2021
                    TABLE 7 TOP 20 PATENT OWNERS (US) IN LAST 10 YEARS
    5.12 TARIFFS AND REGULATIONS RELATED TO PRINTED CIRCUITS
           5.12.1 TARIFFS
           5.12.2 REGULATORY COMPLIANCE
           5.12.3 STANDARDS

6 FPGA MARKET, BY CONFIGURATION (Page No. - 80)
    6.1 INTRODUCTION
           TABLE 8 FPGA MARKET, 2017–2020 (USD MILLION)
           TABLE 9 FPGA MARKET, 2021–2026 (USD MILLION)
           TABLE 10 FPGA MARKET, BY CONFIGURATION, 2017–2020 (USD MILLION)
           TABLE 11 FPGA MARKET, BY CONFIGURATION, 2021–2026 (USD MILLION)
    6.2 LOW-END FPGA
           6.2.1 OFFER HIGH PERFORMANCE AND LOW POWER CONSUMPTION
    6.3 MID-RANGE FPGA
           6.3.1 OFFER INCREASED PRODUCTIVITY AND SHORT TIME-TO-MARKET
    6.4 HIGH-END FPGA
           6.4.1 OFFER SUPERIOR PERFORMANCE AND HIGH BANDWIDTH

7 FPGA MARKET, BY NODE SIZE (Page No. - 85)
    7.1 INTRODUCTION
           TABLE 12 FPGA MARKET, BY NODE SIZE, 2017–2020 (USD MILLION)
           TABLE 13 FPGA MARKET, BY NODE SIZE, 2021–2026 (USD MILLION)
    7.2 ≤ 16 NM
           7.2.1 EXPECTED TO RECORD HIGHEST CAGR FROM 2020 TO 2025
    7.3 22/28–90 NM
           7.3.1 SURGE IN GLOBAL ADOPTION DUE TO HIGH-TEMPERATURE TOLERANCE
    7.4 >90 NM
           7.4.1 INCREASING DEPLOYMENT IN AUTOMOTIVE APPLICATIONS

8 FPGA MARKET, BY TECHNOLOGY (Page No. - 89)
    8.1 INTRODUCTION
           TABLE 14 FPGA MARKET, BY TECHNOLOGY, 2017–2020 (USD MILLION)
           TABLE 15 FPGA MARKET, BY TECHNOLOGY, 2021–2026 (USD MILLION)
    8.2 SRAM
           8.2.1 OFFERS EASY AND CUSTOMIZED RECONFIGURATION AND REPROGRAMMING
    8.3 FLASH
           8.3.1 LOW POWER CONSUMPTION TO SPUR DEMAND WORLDWIDE
    8.4 ANTIFUSE
           8.4.1 LOW PRICE AND ABILITY TO BE PROGRAMMED OFFLINE TO DRIVE DEMAND

9 FPGA MARKET, BY VERTICAL (Page No. - 94)
    9.1 INTRODUCTION
           TABLE 16 FPGA MARKET BY VERTICAL, 2017–2020 (USD MILLION)
           TABLE 17 FPGA MARKET BY VERTICAL, 2021–2026 (USD MILLION)
    9.2 TELECOMMUNICATIONS
           TABLE 18 FPGA MARKET FOR TELECOMMUNICATIONS, BY CONFIGURATION, 2017–2020 (USD MILLION)
           TABLE 19 FPGA MARKET FOR TELECOMMUNICATIONS, BY CONFIGURATION, 2021–2026 (USD MILLION)
           TABLE 20 FPGA MARKET FOR TELECOMMUNICATIONS, BY TYPE, 2017–2020 (USD MILLION)
           TABLE 21 FPGA MARKET FOR TELECOMMUNICATIONS, BY TYPE, 2021–2026 (USD MILLION)
           9.2.1 WIRED COMMUNICATION
                    TABLE 22 FPGA MARKET FOR WIRED COMMUNICATION, BY TYPE, 2017–2020 (USD MILLION)
                    TABLE 23 FPGA MARKET FOR WIRED COMMUNICATION, BY TYPE, 2021–2026 (USD MILLION)
                    9.2.1.1 Optical transport network (OTN)
                               9.2.1.1.1 Rising use of FPGAs in OTN applications
                    9.2.1.2 Backhaul & access network
                               9.2.1.2.1 Ability of FPGAs to address requirements of 4G to spur their adoption
                    9.2.1.3 Network processing
                               9.2.1.3.1 Surge in demand for FPGAs for use in wired applications
                    9.2.1.4 Wired connectivity
                               9.2.1.4.1 Increasing adoption of FPGAs for network access to carry out wireless communication
                    9.2.1.5 Packet based processing & switching
                               9.2.1.5.1 Wide use of FPGAs for packet-based processing & switching applications
           9.2.2 WIRELESS COMMUNICATION
                    TABLE 24 FPGA MARKET FOR WIRELESS COMMUNICATION, BY TYPE, 2017–2020 (USD MILLION)
                    TABLE 25 FPGA MARKET FOR WIRELESS COMMUNICATION, BY TYPE, 2021–2026 (USD MILLION)
                    9.2.2.1 Wireless baseband solutions
                               9.2.2.1.1 Increasing use of FPGAs in smart cells in wireless baseband solutions
                    9.2.2.2 Wireless backhaul solutions
                               9.2.2.2.1 Rising adoption of FPGAs due to their high capacity and throughput
                    9.2.2.3 Radio solutions
                               9.2.2.3.1 Surge in deployment of low-power FPGAs in SDR
           9.2.3 5G
                    9.2.3.1 Rising use of FPGAs in 5G applications
    9.3 CONSUMER ELECTRONICS
           9.3.1 WIDE USE OF FPGAS IN CONSUMER ELECTRONICS PRODUCTS
                    TABLE 26 FPGA MARKET FOR CONSUMER ELECTRONICS, BY CONFIGURATION, 2017–2020 (USD MILLION)
                    TABLE 27 FPGA MARKET FOR CONSUMER ELECTRONICS, BY CONFIGURATION, 2021–2026 (USD MILLION)
    9.4 TEST, MEASUREMENT & EMULATION
           9.4.1 MULTIPLE ADVANTAGES OF FPGA-BASED EQUIPMENT FUEL DEMAND
                    TABLE 28 FPGA MARKET FOR TEST, MEASUREMENT & EMULATION, BY CONFIGURATION, 2017–2020 (USD MILLION)
                    TABLE 29 FPGA MARKET FOR TEST, MEASUREMENT & EMULATION, BY CONFIGURATION, 2021–2026 (USD MILLION)
    9.5 DATA CENTERS & COMPUTING
           TABLE 30 FPGA MARKET FOR DATA CENTERS & COMPUTING, BY CONFIGURATION, 2017–2020 (USD MILLION)
           TABLE 31 FPGA MARKET FOR DATA CENTERS & COMPUTING, BY CONFIGURATION, 2021–2026 (USD MILLION)
           TABLE 32 FPGA MARKET FOR DATA CENTERS & COMPUTING, BY TYPE, 2017–2020 (USD MILLION)
           TABLE 33 FPGA MARKET FOR DATA CENTERS & COMPUTING, BY TYPE, 2021–2026 (USD MILLION)
           9.5.1 STORAGE INTERFACE CONTROL
                    9.5.1.1 Increasing deployment of FPGAs to manage large data volumes
           9.5.2 NETWORK INTERFACE CONTROL
                    9.5.2.1 Rising use of FPGAs for applications requiring additional processing functions
           9.5.3 HARDWARE ACCELERATOR
                    9.5.3.1 FPGAs suited to hosting hardware accelerators
           9.5.4 HIGH PERFORMANCE COMPUTING
                    9.5.4.1 Use of FPGAs to provide customized coprocessing for wide range of applications
    9.6 MILITARY & AEROSPACE
           TABLE 34 FPGA MARKET FOR MILITARY & AEROSPACE, BY CONFIGURATION, 2017–2020 (USD MILLION)
           TABLE 35 FPGA MARKET FOR MILITARY & AEROSPACE, BY CONFIGURATION, 2021–2026 (USD MILLION)
           TABLE 36 FPGA MARKET FOR MILITARY & AEROSPACE, BY TYPE, 2017–2020 (USD MILLION)
           TABLE 37 FPGA MARKET FOR MILITARY & AEROSPACE, BY TYPE, 2021–2026 (USD MILLION)
           9.6.1 AVIONICS
                    9.6.1.1 Wide use of low cost and compact FPGAs in avionics applications
           9.6.2 MISSILES & MUNITION
                    9.6.2.1 Rapid adoption of FPGAs by defense contractors and agencies to facilitate development of cutting-edge technologies
           9.6.3 RADARS & SENSORS
                    9.6.3.1 Increasing use of FPGAs in high-speed radars
           9.6.4 OTHERS
    9.7 INDUSTRIAL
           TABLE 38 FPGA MARKET FOR INDUSTRIAL, BY CONFIGURATION, 2017–2020 (USD MILLION)
           TABLE 39 FPGA MARKET FOR INDUSTRIAL, BY CONFIGURATION, 2021–2026 (USD MILLION)
           TABLE 40 FPGA MARKET FOR INDUSTRIAL, BY TYPE, 2017–2020 (USD MILLION)
           TABLE 41 FPGA MARKET FOR INDUSTRIAL, BY TYPE, 2021–2026 (USD MILLION)
           9.7.1 VIDEO SURVEILLANCE SYSTEMS
                    9.7.1.1 Growing demand for FPGA-enabled smart cameras
           9.7.2 MACHINE VISION SOLUTIONS
                    9.7.2.1 Surge in demand for machine vision systems in automated industries
           9.7.3 INDUSTRIAL NETWORKING SOLUTIONS
                    9.7.3.1 Rising adoption of FPGAs in industrial networking solutions like Ethernet
           9.7.4 INDUSTRIAL MOTOR CONTROL SOLUTIONS
                    9.7.4.1 Growing use of FPGAs in motor control systems
           9.7.5 ROBOTICS
                    9.7.5.1 FPGAs offer a common embedded hardware and software platform
           9.7.6 INDUSTRIAL SENSORS
                    9.7.6.1 Rising use of FPGAs in industrial sensors
           9.7.7 OTHERS
    9.8 AUTOMOTIVE
           TABLE 42 FPGA MARKET FOR AUTOMOTIVE, BY CONFIGURATION, 2017–2020 (USD MILLION)
           TABLE 43 FPGA MARKET FOR AUTOMOTIVE, BY CONFIGURATION, 2021–2026 (USD MILLION)
           TABLE 44 FPGA MARKET FOR AUTOMOTIVE, BY TYPE, 2017–2020 (USD MILLION)
           TABLE 45 FPGA MARKET FOR AUTOMOTIVE, BY TYPE, 2021–2026 (USD MILLION)
           9.8.1 ADAS
                    9.8.1.1 Growing preference for customizable and versatile FPGAs
           9.8.2 AUTOMOTIVE INFOTAINMENT & DRIVER INFORMATION SYSTEMS
                    9.8.2.1 Rising use of FPGAs for real time processing of information
           9.8.3 SENSOR FUSION
                    9.8.3.1 Increasing use of FPGAs in sensors to increase computational powers of vehicle systems
    9.9 HEALTHCARE
           TABLE 46 FPGA MARKET FOR HEALTHCARE, BY CONFIGURATION, 2017–2020 (USD MILLION)
           TABLE 47 FPGA MARKET FOR HEALTHCARE, BY CONFIGURATION, 2021–2026 (USD MILLION)
           TABLE 48 FPGA MARKET FOR HEALTHCARE, BY TYPE, 2017–2020 (USD MILLION)
           TABLE 49 FPGA MARKET FOR HEALTHCARE, BY TYPE, 2021–2026 (USD MILLION)
           9.9.1 IMAGE DIAGNOSTIC SYSTEMS
                    TABLE 50 FPGA MARKET FOR IMAGING DIAGNOSTIC SYSTEMS, BY TYPE, 2017–2020 (USD MILLION)
                    TABLE 51 FPGA MARKET FOR IMAGING DIAGNOSTIC SYSTEMS, BY TYPE, 2021–2026 (USD MILLION)
                    9.9.1.1 Ultrasound machines
                               9.9.1.1.1 Surge in use of FPGAs in portable ultrasound machines
                    9.9.1.2 X-ray Machines
                               9.9.1.2.1 Growing adoption of FPGAs with high processing power
                    9.9.1.3 CT scanners
                               9.9.1.3.1 Use of FPGAs to reduce size and weight of CT scanners
                    9.9.1.4 MRI machines
                               9.9.1.4.1 Increasing use of FPGAs to facilitate handling of large volumes of data
           9.9.2 WEARABLE DEVICES
                    9.9.2.1 High demand for reprogrammable FPGAs to add new features in devices
           9.9.3 OTHERS
    9.10 MULTIMEDIA
           TABLE 52 FPGA MARKET FOR MULTIMEDIA, BY CONFIGURATION, 2017–2020 (USD MILLION)
           TABLE 53 FPGA MARKET FOR MULTIMEDIA, BY CONFIGURATION, 2021–2026 (USD MILLION)
           TABLE 54 FPGA MARKET FOR MULTIMEDIA, BY TYPE, 2017–2020 (USD MILLION)
           TABLE 55 FPGA MARKET FOR MULTIMEDIA, BY TYPE, 2021–2026 (USD MILLION)
           9.10.1 AUDIO DEVICES
                    9.10.1.1 Increasing adoption of FPGAs for DSP to propel market growth
           9.10.2 VIDEO PROCESSING
                    9.10.2.1 Rising use of FPGAs in video processing applications
    9.11 BROADCASTING
                    TABLE 56 FPGA MARKET FOR BROADCASTING, BY CONFIGURATION, 2017–2020 (USD MILLION)
                    TABLE 57 FPGA MARKET FOR BROADCASTING, BY CONFIGURATION, 2021–2026 (USD MILLION)
                    TABLE 58 FPGA MARKET FOR BROADCASTING, BY TYPE, 2017–2020 (USD MILLION)
                    TABLE 59 FPGA MARKET FOR BROADCASTING, BY TYPE, 2021–2026 (USD MILLION)
           9.11.1 BROADCASTING PLATFORM SYSTEMS
                    9.11.1.1 High adoption of FPGAs due to their hardware acceleration ability
           9.11.2 HIGH-END BROADCASTING SYSTEMS
                    9.11.2.1 Surge in use of FPGA-based broadcast systems for displays and signage

10 GEOGRAPHIC ANALYSIS (Page No. - 129)
     10.1 INTRODUCTION
               TABLE 60 FPGA MARKET, BY REGION, 2017–2020 (USD MILLION)
               TABLE 61 FPGA MARKET, BY REGION, 2021–2026 (USD MILLION)
     10.2 NORTH AMERICA
               TABLE 62 FPGA MARKET IN NORTH AMERICA, BY CONFIGURATION, 2017–2020 (USD MILLION)
               TABLE 63 FPGA MARKET IN NORTH AMERICA, BY CONFIGURATION, 2021–2026 (USD MILLION)
               TABLE 64 FPGA MARKET IN NORTH AMERICA, BY TECHNOLOGY, 2017–2020 (USD MILLION)
               TABLE 65 FPGA MARKET IN NORTH AMERICA, BY TECHNOLOGY, 2021–2026 (USD MILLION)
               TABLE 66 FPGA MARKET IN NORTH AMERICA, BY VERTICAL, 2017–2020 (USD MILLION)
               TABLE 67 FPGA MARKET IN NORTH AMERICA, BY VERTICAL, 2021–2026 (USD MILLION)
               TABLE 68 FPGA MARKET IN NORTH AMERICA FOR TELECOMMUNICATIONS, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 69 FPGA MARKET IN NORTH AMERICA FOR TELECOMMUNICATIONS, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 70 FPGA MARKET, IN NORTH AMERICA FOR DATA CENTERS & COMPUTING, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 71 FPGA MARKET IN NORTH AMERICA FOR DATA CENTERS & COMPUTING, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 72 FPGA MARKET IN NORTH AMERICA FOR MILITARY & AEROSPACE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 73 FPGA MARKET IN NORTH AMERICA FOR MILITARY & AEROSPACE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 74 FPGA MARKET IN NORTH AMERICA FOR INDUSTRIAL, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 75 FPGA MARKET IN NORTH AMERICA FOR INDUSTRIAL, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 76 FPGA MARKET IN NORTH AMERICA FOR AUTOMOTIVE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 77 FPGA MARKET IN NORTH AMERICA FOR AUTOMOTIVE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 78 FPGA MARKET IN NORTH AMERICA FOR HEALTHCARE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 79 FPGA MARKET IN NORTH AMERICA FOR HEALTHCARE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 80 FPGA MARKET IN NORTH AMERICA FOR MULTIMEDIA, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 81 FPGA MARKET IN NORTH AMERICA FOR MULTIMEDIA, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 82 FPGA MARKET IN NORTH AMERICA FOR BROADCASTING, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 83 FPGA MARKET IN NORTH AMERICA FOR BROADCASTING, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 84 FPGA MARKET IN NORTH AMERICA, BY COUNTRY, 2017–2020 (USD MILLION)
               TABLE 85 FPGA MARKET IN NORTH AMERICA, BY COUNTRY, 2021–2026 (USD MILLION)
             10.2.1 US
                       10.2.1.1 Projected to lead FPGA market in North America from 2021 to 2026
             10.2.2 CANADA
                       10.2.2.1 FPGA market to grow at significant rate from 2021 to 2026
             10.2.3 MEXICO
                       10.2.3.1 Rapid growth of industrial sector expected to boost market from 2021 to 2026
     10.3 EUROPE
               TABLE 86 FPGA MARKET IN EUROPE, BY CONFIGURATION, 2017–2020 (USD MILLION)
               TABLE 87 FPGA MARKET IN EUROPE, BY CONFIGURATION, 2021–2026 (USD MILLION)
               TABLE 88 FPGA MARKET IN EUROPE, BY TECHNOLOGY, 2017–2020 (USD MILLION)
               TABLE 89 FPGA MARKET IN EUROPE, BY TECHNOLOGY, 2021–2026 (USD MILLION)
               TABLE 90 FPGA MARKET IN EUROPE, BY VERTICAL, 2017–2020 (USD MILLION)
               TABLE 91 FPGA MARKET IN EUROPE, BY VERTICAL, 2021–2026 (USD MILLION)
               TABLE 92 FPGA MARKET IN EUROPE FOR TELECOMMUNICATIONS, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 93 FPGA MARKET IN EUROPE FOR TELECOMMUNICATIONS, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 94 FPGA MARKET IN EUROPE FOR DATA CENTERS & COMPUTING, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 95 FPGA MARKET IN EUROPE FOR DATA CENTERS & COMPUTING, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 96 FPGA MARKET IN EUROPE FOR MILITARY & AEROSPACE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 97 FPGA MARKET IN EUROPE FOR MILITARY & AEROSPACE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 98 FPGA MARKET IN EUROPE FOR INDUSTRIAL, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 99 FPGA MARKET IN EUROPE FOR INDUSTRIAL, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 100 FPGA MARKET IN EUROPE FOR AUTOMOTIVE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 101 FPGA MARKET IN EUROPE FOR AUTOMOTIVE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 102 FPGA MARKET IN EUROPE FOR HEALTHCARE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 103 FPGA MARKET IN EUROPE FOR HEALTHCARE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 104 FPGA MARKET IN EUROPE FOR MULTIMEDIA, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 105 FPGA MARKET IN EUROPE FOR MULTIMEDIA, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 106 FPGA MARKET IN EUROPE FOR BROADCASTING, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 107 FPGA MARKET IN EUROPE FOR BROADCASTING, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 108 FPGA MARKET IN EUROPE, BY COUNTRY, 2017–2020 (USD MILLION)
               TABLE 109 FPGA MARKET IN EUROPE, BY COUNTRY, 2021–2026 (USD MILLION)
             10.3.1 GERMANY
                       10.3.1.1 Presence of leading automotive manufacturers to spur market growth
             10.3.2 UK
                       10.3.2.1 Initiatives by 5G service providers to drive growth of market
             10.3.3 FRANCE
                       10.3.3.1 Rising use of FPGAs in automobiles to contribute to market growth
             10.3.4 REST OF EUROPE
     10.4 APAC
               TABLE 110 FPGA MARKET IN APAC, BY CONFIGURATION, 2017–2020 (USD MILLION)
               TABLE 111 FPGA MARKET IN APAC, BY CONFIGURATION, 2021–2026 (USD MILLION)
               TABLE 112 FPGA MARKET IN APAC, BY TECHNOLOGY, 2017–2020 (USD MILLION)
               TABLE 113 FPGA MARKET IN APAC, BY TECHNOLOGY, 2021–2026 (USD MILLION)
               TABLE 114 FPGA MARKET IN APAC, BY VERTICAL, 2017–2020 (USD MILLION)
               TABLE 115 FPGA MARKET IN APAC, BY VERTICAL, 2021–2026 (USD MILLION)
               TABLE 116 FPGA MARKET IN APAC FOR TELECOMMUNICATIONS, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 117 FPGA MARKET IN APAC FOR TELECOMMUNICATIONS, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 118 FPGA MARKET IN APAC FOR DATA CENTERS & COMPUTING, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 119 FPGA MARKET IN APAC FOR DATA CENTERS & COMPUTING, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 120 FPGA MARKET IN APAC FOR MILITARY & AEROSPACE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 121 FPGA MARKET IN APAC FOR MILITARY & AEROSPACE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 122 FPGA MARKET IN APAC FOR INDUSTRIAL, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 123 FPGA MARKET IN APAC FOR INDUSTRIAL, BY TYPE,  2021–2026 (USD MILLION)
               TABLE 124 FPGA MARKET IN APAC FOR AUTOMOTIVE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 125 FPGA MARKET IN APAC FOR AUTOMOTIVE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 126 FPGA MARKET IN APAC FOR HEALTHCARE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 127 FPGA MARKET IN APAC FOR HEALTHCARE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 128 FPGA MARKET IN APAC FOR MULTIMEDIA, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 129 FPGA MARKET IN APAC FOR MULTIMEDIA, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 130 FPGA MARKET IN APAC FOR BROADCASTING, BY TYPE,  2017–2020 (USD MILLION)
               TABLE 131 FPGA MARKET IN APAC FOR BROADCASTING, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 132 FPGA MARKET IN APAC, BY COUNTRY, 2017–2020 (USD MILLION)
               TABLE 133 FPGA MARKET IN APAC, BY COUNTRY, 2021–2026 (USD MILLION)
             10.4.1 CHINA
                       10.4.1.1 Increasing adoption of FPGAS for 5G networking to propel market growth
             10.4.2 JAPAN
                       10.4.2.1 Surging adoption of FPGAs in automotive sector to drive market growth
             10.4.3 INDIA
                       10.4.3.1 Automation of heavy machinery and introduction of 5G technology to fuel demand for FPGAs
             10.4.4 REST OF APAC
     10.5 ROW
               TABLE 134 FPGA MARKET IN ROW, BY CONFIGURATION, 2017–2020 (USD MILLION)
               TABLE 135 FPGA MARKET IN ROW, BY CONFIGURATION, 2021–2026 (USD MILLION)
               TABLE 136 FPGA MARKET IN ROW, BY TECHNOLOGY, 2017–2020 (USD MILLION)
               TABLE 137 FPGA MARKET IN ROW, BY TECHNOLOGY, 2021–2026 (USD MILLION)
               TABLE 138 FPGA MARKET IN ROW, BY VERTICAL, 2017–2020 (USD MILLION)
               TABLE 139 FPGA MARKET IN ROW, BY VERTICAL, 2021–2026 (USD MILLION)
               TABLE 140 FPGA MARKET IN ROW FOR TELECOMMUNICATIONS, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 141 FPGA MARKET IN ROW FOR TELECOMMUNICATIONS, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 142 FPGA MARKET IN ROW FOR DATA CENTERS & COMPUTING, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 143 FPGA MARKET IN ROW FOR DATA CENTERS & COMPUTING, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 144 FPGA MARKET IN ROW FOR MILITARY & AEROSPACE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 145 FPGA MARKET IN ROW FOR MILITARY & AEROSPACE, BY TYPE,  2021–2026 (USD MILLION)
               TABLE 146 FPGA MARKET IN ROW FOR INDUSTRIAL, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 147 FPGA MARKET IN ROW FOR INDUSTRIAL, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 148 FPGA MARKET IN ROW FOR AUTOMOTIVE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 149 FPGA MARKET IN ROW FOR AUTOMOTIVE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 150 FPGA MARKET IN ROW FOR HEALTHCARE, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 151 FPGA MARKET IN ROW FOR HEALTHCARE, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 152 FPGA MARKET IN ROW FOR MULTIMEDIA, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 153 FPGA MARKET IN ROW FOR MULTIMEDIA, BY TYPE,  2021–2026 (USD MILLION)
               TABLE 154 FPGA MARKET IN ROW FOR BROADCASTING, BY TYPE, 2017–2020 (USD MILLION)
               TABLE 155 FPGA MARKET IN ROW FOR BROADCASTING, BY TYPE, 2021–2026 (USD MILLION)
               TABLE 156 FPGA MARKET IN ROW, BY COUNTRY, 2017–2020 (USD MILLION)
               TABLE 157 FPGA MARKET IN ROW, BY COUNTRY, 2021–2026 (USD MILLION)
             10.5.1 MIDDLE EAST
                       10.5.1.1 Demand from healthcare vertical drives growth of FPGA market
             10.5.2 SOUTH AMERICA
                       10.5.2.1 Growth of automotive industry to fuel demand for FPGAs
             10.5.3 AFRICA
     10.6 COVID-19 IMPACT ON FPGA MARKET IN VARIOUS REGIONS
             10.6.1 MOST IMPACTED REGION
             10.6.2 LEAST IMPACTED REGION

11 COMPETITIVE LANDSCAPE (Page No. - 170)
     11.1 INTRODUCTION
     11.2 KEY PLAYER STRATEGIES/RIGHT TO WIN
               TABLE 158 OVERVIEW OF STRATEGIES DEPLOYED BY KEY FPGA COMPANIES
             11.2.1 PRODUCT PORTFOLIO
             11.2.2 REGIONAL FOCUS
             11.2.3 MANUFACTURING FOOTPRINT
             11.2.4 ORGANIC/INORGANIC GROWTH STRATEGIES
     11.3 MARKET SHARE ANALYSIS: FPGA MARKET, 2020
               TABLE 159 FPGA MARKET: MARKET SHARE ANALYSIS (2020)
     11.4 FIVE-YEAR REVENUE ANALYSIS OF TOP COMPANIES
     11.5 COMPANY EVALUATION QUADRANT
             11.5.1 STAR
             11.5.2 PERVASIVE
             11.5.3 EMERGING LEADER
             11.5.4 PARTICIPANT
     11.6 START-UP/ SMALL AND MEDIUM-SIZED ENTERPRISES (SME) EVALUATION MATRIX
               TABLE 160 START-UP/ SMALL AND MEDIUM-SIZED ENTERPRISES (SME) IN FPGA MARKET
             11.6.1 PROGRESSIVE COMPANIES
             11.6.2 RESPONSIVE COMPANIES
             11.6.3 DYNAMIC COMPANIES
             11.6.4 STARTING BLOCKS
     11.7 COMPANY FOOTPRINT
               TABLE 161 COMPANY FOOTPRINT
               TABLE 162 COMPANY END-USER FOOTPRINT
               TABLE 163 COMPANY REGIONAL FOOTPRINT
     11.8 COMPETITIVE SITUATIONS AND TRENDS
             11.8.1 PRODUCT LAUNCHES AND DEVELOPMENTS
                       TABLE 164 PRODUCT LAUNCHES AND DEVELOPMENTS, JANUARY 2018–DECEMBER 2021
             11.8.2 DEALS
                       TABLE 165 DEALS, JANUARY 2018–DECEMBER 2021

12 COMPANY PROFILES (Page No. - 195)
(Business Overview, Products Offered, Recent Developments, SWOT Analysis, MnM View)*
     12.1 KEY COMPANIES
             12.1.1 XILINX INC.
             12.1.2 INTEL CORPORATION
             12.1.3 MICROCHIP TECHNOLOGIES INC.
             12.1.4 LATTICE SEMICONDUCTOR CORPORATION
             12.1.5 QUICKLOGIC CORPORATION
             12.1.6 EFINIX INC.
             12.1.7 FLEX LOGIX TECHNOLOGIES INC.
             12.1.8 GOWIN SEMICONDUCTOR CORPORATION
             12.1.9 ACHRONIX SEMICONDUCTOR CORPORATION
             12.1.10 S2C INC.
     12.2 OTHER PLAYERS
             12.2.1 LEAFLABS LLC
             12.2.2 ALDEC INC.
             12.2.3 BITSIM AB
             12.2.4 BYTESNAP DESIGN
             12.2.5 ENCLUSTRA GMBH
             12.2.6 ENSILICA LIMITED
             12.2.7 GIDEL INC.
             12.2.8 NUVATION ENGINEERING
             12.2.9 SILEXICA GMBH
             12.2.10 EMUPRO CONSULTING PVT.LTD.

*Details on Business Overview, Products Offered, Recent Developments, SWOT Analysis, MnM View might not be captured in case of unlisted companies.

13 APPENDIX (Page No. - 243)
     13.1 DISCUSSION GUIDE
     13.2 KNOWLEDGE STORE: MARKETSANDMARKETS’ SUBSCRIPTION PORTAL
     13.3 AVAILABLE CUSTOMIZATIONS
     13.4 RELATED REPORTS
     13.5 AUTHOR DETAILS

The study involved four major activities in estimating the size of the FPGA market. Exhaustive secondary research has been carried out to collect information on the market, the peer markets, and the parent market. Both top-down and bottom-up approaches have been employed to estimate the total market size. Market breakdown and data triangulation methods have also been used to estimate the market for segments and subsegments.

Secondary Research

In the secondary research process, various sources have been referred to for identifying and collecting information for this study on the FPGA market. Secondary sources considered for this research study include government sources; corporate filings (such as annual reports, investor presentations, and financial statements); and trade, business, and professional associations. Secondary data has been collected and analyzed to arrive at the overall market size, which has been further validated through primary research.

Secondary research has been mainly used to obtain key information about the supply chain of the FPGA industry to identify the key players based on their products, as well as to identify the prevailing industry trends in the FPGA market based on configuration, node size, technology, vertical, and region. It also includes information about the key developments undertaken from both market and technology-oriented perspectives.

Primary Research

Extensive primary research has been conducted after understanding and analyzing the current scenario of the FPGA market through secondary research. Several primary interviews have been conducted with key opinion leaders from both the demand and supply sides across four major regions: North America, Europe, APAC, and RoW. Approximately 25% of the primary interviews have been conducted with the demand side, while 75% have been conducted with the supply side. This primary data has been collected mainly through telephonic interviews, which account for 80% of the total primary interviews. Questionnaires and e-mails have also been used to collect data.

After interacting with industry experts, brief sessions were conducted with highly experienced independent consultants to reinforce the findings from our primaries. This, along with the in-house subject matter experts’ opinions, has led us to the findings as described in the remainder of this report. The breakdown of primary respondents is as follows:

FPGA Market   Size, and Share

To know about the assumptions considered for the study, download the pdf brochure

Market Size Estimation

The bottom-up procedure has been employed to arrive at the overall size of the FPGA market.

  • Identifying various FPGA products
  • Analyzing the penetration of each product through secondary and primary research
  • Conducting multiple discussion sessions with key opinion leaders to understand the detailed working of FPGAs and their implementation by multiple end users; helped analyze the break-up of the scope of work carried out by each major company
  • Verifying and cross-checking the estimates at every level with key opinion leaders, including CEOs, directors, operation managers, and finally with MarketsandMarkets' domain experts
  • Studying various paid and unpaid sources of information, such as annual reports, press releases, white papers, and databases

FPGA Market   Size, and Share

The top-down approach has been used to estimate and validate the total size of the FPGA market.

  • Focusing initially on the top-line investments and expenditures being made in the FPGA market ecosystem; further splitting the key market areas based on configuration, node size, technology, vertical, and region, and listing the key developments
  • Identifying all leading players in the FPGA market based on configuration and vertical through secondary research, and fully verifying them through brief discussions with industry experts
  • Analyzing revenues, product mix, geographic presence, and key verticals served by all identified players to estimate and arrive at percentage splits for all key segments
  • Discussing splits with industry experts to validate the information and identify key growth pockets across all key segments
  • Breaking down the total market based on verified splits and key growth pockets across all segments

FPGA Market   Size, and Share

Data Triangulation

After arriving at the overall market size—using the market size estimation processes as explained above—the market has been split into several segments and subsegments. To complete the entire market engineering process and arrive at the exact statistics of each market segment and subsegment, data triangulation, and market breakdown procedures have been employed, wherever applicable. The data has been triangulated by studying various factors and trends from both the demand and supply sides in the FPGA market.

Report Objectives

  • To describe and forecast the global field-programmable gate array (FPGA) market, by configuration, node size, technology, vertical, and region, in terms of value
  • To describe and forecast the global FPGA market, in terms of volume
  • To describe and forecast the market for four key regions-North America, Europe, Asia Pacific (APAC), and the Rest of the World (RoW)-in terms of value
  • To provide detailed information regarding the drivers, restraints, opportunities, and industry-specific challenges influencing the growth of the FPGA market
  • To provide a detailed overview of the supply chain pertaining to FPGA ecosystems, along with the average selling price for FPGA
  • To strategically analyze the ecosystem, tariff and regulations, patent landscape, trade landscape, and various case studies pertaining to the FPGA market
  • To describe, in detail, the COVID-19 impact on the global FPGA market
  • To strategically analyze micromarkets with respect to individual growth trends, prospects, and contributions to the overall market
  • To strategically profile key players and comprehensively analyze their position in the FPGA market in terms of their ranking and core competencies, and detail the competitive landscape for market leaders
  • To analyze competitive developments in the FPGA market, such as product launches and developments, agreements, acquisitions, and partnerships

Available Customizations:

With the given market data, MarketsandMarkets offers customizations according to a company’s specific needs. The following customization options are available for the report:

  • Detailed analysis and profiling of additional market players based on various blocks of the FPGA supply chain
COVID-19

Get in-depth analysis of the COVID-19 impact on the FPGA Market

Benchmarking the rapid strategy shifts of the Top 100 companies in the FPGA Market

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