Space Power Electronics Market by Device Type (Power Discrete, Power Module, Power IC), Application (Satellites, Spacecraft & Launch Vehicles, Space Stations, Rovers), Platform, Voltage, Current, Material and Region (2021-2026)
[238 Pages Report] The Space power electronics market is projected to grow from USD 205 million in 2021 to USD 435 million by 2026, at a CAGR of 16.2%.
Space power electronics is the application of electronics on satellites, spacecraft, launch vehicles, space stations and rovers to control and convert electric power from one form to other. It deals with the processing of high voltages and currents to deliver power that supports a variety of needs. According to the National Aeronautics and Space Administration, a power electronic system can comprise a modular power electronic subsystem (PESS) connected to a source and load at its input and output power ports, respectively. Semiconductor devices such as metal-oxide semiconductor field effect transistors (MOSFET), insulated gate bipolar transistors (IGBT), mos-controlled thyristor (MCT), and gate-turn-off thyristors (GTO) represent the cornerstone of modem power electronic converters.
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COVID-19 Impact on the Space Power Electronics Market
The COVID-19 pandemic has caused significant damage to the economic activities of countries across the world. The manufacturing of space power electronics, subsystems, and components has also been impacted. Although satellite systems are critically important, disruptions in the supply chain have halted their manufacturing processes for the time being. Resuming manufacturing activities depends on the level of COVID-19 exposure, the level at which manufacturing operations are running, and import-export regulations, among other factors. While companies may still be taking in orders, delivery schedules may not be fixed.
Space Power Electronics Market Dynamics
Driver: Increasing demand for wide bandgap materials such as silicon carbide (SiC) and gallium nitride (GaN)
The semiconductor material used to make space power cables has made significant strides in the last few decades. Wide bandgap semiconductor materials are of specific interest, which has provided significant improvements in performance over the current standard, silicon, due to which there is an increase in demand for materials such as silicon carbide (SiC) and gallium nitride (GaN). These wide bandgap materials can operate at higher temperatures of up to 200°C as long as the package can tolerate this, while silicon is limited to 150°C. A wide bandgap semiconductor can handle nearly 10 times more voltage as compared to silicon and the switching speed/ switching frequency of SiC and GaN are also nearly 10 times higher than the silicon. GaN and SiC power semiconductors are expected to make significant strides in the power industry within the next decade and will have a consolidated share of 13% in the power semiconductor market by 2024.
Restrains: Complex design and integration process
Many space agencies and private entities are trying to improve the technologies used in space power electronics to improve their reliability by improving the output with reduction in power losses. At the same time, they are trying to reduce the cost of space power electronics. They are innovating in radiation-hardened power electronics to enable them to tolerate harsher radiation environments with better precision for longer operational periods. The players operating in the power electronics industry are focusing on integrating multiple functionalities in a single chip, which results in a complex design.
Furthermore, the designing and integrating complex devices require special skillsets, robust methodology, and a particular toolset, which increase the overall cost of the devices. Consequently, the high cost of the devices is expected to hamper the switching process toward advanced technological devices. Subsequently, evolving technologies generate demand for more functionalities to be integrated into system-on-chips (SoCs), making devices smaller and more efficient. All these changes in space power electronics are making their design more complex and increasing the difficulty in the integration process.
Opportunities: Miniaturization of space DC-DC converters
In the current scenario, satellite manufacturers are demanding compact-sized power converters. The compactness of converters benefits designers who need galvanically isolated output power or noise reduction in an analog circuit. The miniaturized version of DC-DC converters will offer very low output noise with an extended operating temperature, which will result in high switching frequencies. As a result, the converters will deliver high efficiency. Therefore, market players have the opportunity to reduce the device size to make DC-DC converters more effective.
Challenges: Hazards due to harsh space conditions
The first challenge for space power electronics is the vibration imposed by the launch vehicle. When the spacecraft leaves the Earth’s atmosphere there are many environment changes such as change in temperature and pressure which need to be handled by electronics.
High levels of contamination on surfaces can contribute to electrostatic discharge. Satellites are also vulnerable to charging and discharging. Satellite charging is a variation in the electrostatic potential of a satellite, with respect to the surrounding low-density plasma around the satellite. The extent of the charging depends on the design of the satellite and the orbit. The two primary mechanisms responsible for charging are plasma bombardment and photoelectric effects. Discharges as high as 20,000 V have been known to occur on satellites in geosynchronous orbits. The atmosphere in LEO is comprised of about 96% atomic oxygen.
Based on device type, the power IC segment is expected to lead the space power electronics market from 2021 to 2026.
Power ICs are integrated circuits that include multiple power rails and power management functions within a single chip. Power ICs are frequently used to power small, battery-operated devices since the integration of multiple functions into a single chip result in more efficient use of space and system power. Functions commonly integrated into a PMIC include voltage converters and regulators, battery chargers, battery fuel gauges, LED drivers, real-time clocks, power sequencers, and power control. The Power ICs consist of Power Management ICs and Application Specific ICs.
Based on application, the satellite segment is expected to lead the space power electronics market from 2021 to 2026.
Satellites are increasingly being adopted in modern communication technologies. The introduction of wireless satellite internet and development of miniature hardware systems are exploiting numerous opportunities in the field of satellite-enabled communication. Over the past decade, there has been an explosion of activity in the small satellite world, driven by technology breakthroughs, industry commercialization, and private investments. There is a growing demand for space exploration, which enables small satellites to achieve attitude and orbit control, orbital transfers, and end-of-life deorbiting. Miniaturization of power electronic technologies are performing very well for CubeSats. Also, rapid growth in the NewSpace industry has led to the greater use of modular components like miniaturized rad-hard MOSFETs, gate drivers, DC-DC convertors and solid-state relays.
Based on region, North America is expected to lead the space power electronics market from 2021 to 2026.
The US is a lucrative market for space power electronics in the North American region. The US government is increasingly investing in advanced space power electronics technologies to enhance the quality and effectiveness of satellite communication, deep space exploration. The increasing investment on satellite equipment to enhance defense and surveillance capabilities of the armed forces, modernization of existing communication in military platforms, critical infrastructure and law enforcement agencies using satellite systems, are key factors expected to drive the Space Power Electronics Industry in North America. Boeing-manufactured O3b mPOWER satellites are widely using radiation-fault-tolerant DC-DC converter power modules for better power conversion
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Key Market Players
The Space Power Electronics Companies are dominated by a few globally established players such as Infineon Technologies (Germany), Texas Instrument Incorporated US), STMicroelectronics (Switzerland), Onsemi (US), Renesas Electronics Corporation (Japan), among others.
Contracts were the main strategy adopted by leading players to sustain their position in the space power electronics market, followed by new product developments with advanced technologies. Many companies also collaborated to set up special centers for the research & development of advanced space power electronics equipment.
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|
Report Metric |
Details |
|
Market size available for years |
2018–2026 |
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Base year considered |
2020 |
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Forecast period |
2021-2026 |
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Forecast units |
Value (USD Million) |
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Segments covered |
By Device Type, by Application, by Platform Type, by Voltage, by Current, by Material and by Region |
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Geographies covered |
North America, Europe, Asia Pacific, and Rest of the World |
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Companies covered |
Infineon Technologies (Germany), Texas Instrument Incorporated US), STMicroelectronics (Switzerland), Onsemi (US), Renesas Electronics Corporation (Japan) are some of the major players of space power electronics market. (25 Companies) |
The study categorizes the space power electronics market based on Device Type, Application, Platform Type, Voltage, Current, Material and Region
By Device Type
- Power Discrete
- Power Module
- Power IC
By Application
- Satellite
- Spacecraft & Launch Vehicle
- Rovers
-
Space stations
By Platform type
- Power
- Command and data handling
- ADCS
- Propulsion
- TT&C
- Structure
- Thermal system
By Voltage
- Low Voltage
- Medium Voltage
- High Voltage
By Current
- Upto 25A
- 25-50A
- Over 50A
By Region
- North America
- Europe
- Asia Pacific
- Rest of the World
Recent Developments
- In March 2022, Cobham Advanced Electronic Solutions (CAES) and Trident Systems Incorporated announced a strategic partnership to offer an integrated portfolio of best-in-class advanced mission computing and communications solutions for space, air, sea, and land defense applications.
- In February 2022, Infineon Technologies is strengthening its market leadership in power semiconductors by adding significant manufacturing capacities in the field of wide bandgap (SiC and GaN) semiconductors. The company is investing more than USD 2.3 billion to build a third module at its site in Kulim, Malaysia. Once fully equipped, the new module will generate USD 2.3 billion in additional annual revenue with products based on silicon carbide and gallium nitride.
- In December 2021, Microchip Technology undertook a significant expansion of its Gallium Nitride (GaN) Radio Frequency (RF) power device portfolio with new MMICs and discrete transistors that cover frequencies up to 20 gigahertz (GHz). The devices combine high power-added efficiency (PAE) and high linearity to deliver new levels of performance in applications ranging from 5G to electronic warfare, satellite communications, commercial & defense radar systems, and test equipment.
- In November 2021, Texas Instruments Incorporated announced plans to begin construction on its new 300-millimeter semiconductor wafer fabrication (fab) plant in Sherman in the second half of 2022. Production from the first new fab is expected as early as 2025.
- In August 2021, STMicroelectronics collaborated with Xilinx, Inc. to build a power solution for the Xilinx Kintex UltraScale XQRKU060 radiation-tolerant FPGA, leveraging QML-V qualified voltage regulators from ST’s space-products portfolio.
- In June 2020, Efficient Power Conversion (EPC) Corporation and VPT, Inc, a subsidiary of HEICO Corporation, announced the establishment of EPC Space LLC, a joint venture focused on designing and manufacturing radiation hardened (Rad Hard) GaN-on-silicon transistors and ICs packaged, tested, and qualified for satellite and high-reliability applications.
Frequently Asked Questions (FAQ):
Which are the major companies in the space power electronics market? What are their major strategies to strengthen their market presence?
The space power electronics market is dominated by a few globally established players such as Infineon Technologies (Germany), Texas Instrument Incorporated US), STMicroelectronics (Switzerland), Onsemi (US), Renesas Electronics Corporation (Japan), among others.
Contracts were the main strategy adopted by leading players to sustain their position in the space power electronics market, followed by new product developments with advanced technologies. Many companies also collaborated to set up special centers for the research & development of advanced space power electronics equipment.What are the drivers and opportunities for the space power electronics market?
The market for space power electronics has grown substantially across the globe, and especially in Asia Pacific, where increase in developing new technologies and procurement of new satellite technologies in such as China, India, and Japan, will offer several opportunities for small satellite systems industry. The rising R&D activities to develop space power electronics are also expected to boost the growth of the market around the world.
Which region is expected to grow at the highest rate in the next five years?
The market in Rest of the World is projected to grow at the highest CAGR of from 2021 to 2026, showcasing strong demand for internet connectivity in the region.
Which type of space power electronics is expected to significantly lead in the coming years?
Others (Gallium-arsenide (GaAs) and Silicon Germanium (SiGe)) segment of the space power electronics market is projected to witness the highest CAGR due to increasing use of high-mobility channel materials i.e., materials that have high flow of electrons in the space power electronics. .
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TABLE OF CONTENTS
1 INTRODUCTION (Page No. - 30)
1.1 OBJECTIVES OF THE STUDY
1.2 MARKET DEFINITION
1.3 STUDY SCOPE
1.3.1 MARKETS COVERED
1.3.2 REGIONAL SCOPE
1.3.3 YEARS CONSIDERED FOR THE STUDY
1.4 CURRENCY & PRICING
1.5 USD EXCHANGE RATES
1.6 LIMITATIONS
1.7 INCLUSIONS & EXCLUSIONS
1.8 STAKEHOLDERS
2 RESEARCH METHODOLOGY (Page No. - 35)
2.1 RESEARCH DATA
FIGURE 1 RESEARCH PROCESS FLOW
FIGURE 2 RESEARCH DESIGN
2.1.1 SECONDARY DATA
2.1.1.1 Key data from secondary sources
2.1.2 PRIMARY DATA
2.1.2.1 Key data from primary sources
2.1.2.2 Key primary sources
2.2 FACTOR ANALYSIS
2.2.1 INTRODUCTION
2.2.2 DEMAND-SIDE INDICATORS
2.3 RESEARCH APPROACH AND METHODOLOGY
2.3.1 BOTTOM-UP APPROACH
FIGURE 3 MARKET SIZE ESTIMATION METHODOLOGY: BOTTOM-UP APPROACH
TABLE 1 MARKET SIZE ESTIMATION & METHODOLOGY
2.3.1.1 Regional split of space power electronics market
2.3.2 TOP-DOWN APPROACH
FIGURE 4 MARKET SIZE ESTIMATION METHODOLOGY: TOP-DOWN APPROACH
2.3.2.1 COVID-19 impact on space power electronics market
2.4 DATA TRIANGULATION
FIGURE 5 DATA TRIANGULATION
2.5 RESEARCH ASSUMPTIONS
2.6 LIMITATIONS
2.7 RISKS
3 EXECUTIVE SUMMARY (Page No. - 46)
FIGURE 6 POWER IC SEGMENT PROJECTED TO LEAD MARKET
FIGURE 7 LOW VOLTAGE SEGMENT PROJECTED TO DOMINATE MARKET
FIGURE 8 UP TO 25 A SEGMENT PROJECTED TO GROW AT HIGHEST CAGR DURING FORECAST PERIOD
FIGURE 9 POWER SEGMENT PROJECTED TO LEAD DURING FORECAST PERIOD
FIGURE 10 SATELLITES SEGMENT PROJECTED TO COMMAND LARGEST SHARE DURING FORECAST PERIOD
FIGURE 11 SILICON SEGMENT PROJECTED TO HOLD MAJOR SHARE DURING FORECAST PERIOD
FIGURE 12 US TO ACCOUNT FOR LOWEST CAGR DURING FORECAST PERIOD
4 PREMIUM INSIGHTS (Page No. - 50)
4.1 ATTRACTIVE GROWTH OPPORTUNITIES IN SPACE POWER ELECTRONICS MARKET
FIGURE 13 INCREASING DEMAND FOR WIDE BANDGAP MATERIALS DRIVES MARKET
4.2 SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE
FIGURE 14 POWER IC SEGMENT PROJECTED TO LEAD DURING FORECAST PERIOD
4.3 SPACE POWER ELECTRONICS MARKET, BY VOLTAGE
FIGURE 15 LOW VOLTAGE SEGMENT PROJECTED TO DOMINATE DURING FORECAST PERIOD
4.4 SPACE POWER ELECTRONICS MARKET, BY CURRENT
FIGURE 16 UP TO 25 A SEGMENT PROJECTED TO GROW AT HIGHEST CAGR DURING FORECAST PERIOD
4.5 SPACE POWER ELECTRONICS MARKET, BY PLATFORM
FIGURE 17 POWER SEGMENT PROJECTED TO LEAD DURING FORECAST PERIOD
4.6 SPACE POWER ELECTRONICS MARKET, BY APPLICATION
FIGURE 18 SATELLITES SEGMENT PROJECTED TO LEAD DURING FORECAST PERIOD
4.7 SPACE POWER ELECTRONICS MARKET, BY MATERIAL
FIGURE 19 SILICON SEGMENT PROJECTED TO HOLD LARGEST SHARE DURING FORECAST PERIOD
4.8 SPACE POWER ELECTRONICS MARKET, BY COUNTRY
FIGURE 20 AUSTRALIA PROJECTED TO GROW AT HIGHEST CAGR DURING FORECAST PERIOD
5 MARKET OVERVIEW (Page No. - 54)
5.1 INTRODUCTION
5.2 MARKET DYNAMICS
FIGURE 21 SPACE POWER ELECTRONICS MARKET: DRIVERS, RESTRAINTS, OPPORTUNITIES, AND CHALLENGES
5.2.1 DRIVERS
5.2.1.1 Increasing demand for wide bandgap materials such as silicon carbide (SiC) and gallium nitride (GaN)
5.2.1.2 Increasing demand for small satellites
TABLE 2 KEY INFORMATION ON LEO AND MEO CONSTELLATIONS (OPERATIONAL)
TABLE 3 KEY INFORMATION ON LEO AND MEO CONSTELLATIONS (DEVELOPMENT)
5.2.1.3 Advancements in power semiconductor switch technology
5.2.1.4 Use of GaN amplifiers for space applications
5.2.1.5 Increasing investments by venture capitalists in space exploration missions
5.2.2 RESTRAINTS
5.2.2.1 Government policies related to spacecraft
5.2.2.2 Complex design and integration process
5.2.2.3 High costs of development and designing
5.2.3 OPPORTUNITIES
5.2.3.1 Miniaturization of space DC-DC converters
5.2.3.2 Development of advanced power electronic components
5.2.3.3 Increasing use of COTS products in satellites and other space applications
5.2.4 CHALLENGES
5.2.4.1 Hazards due to harsh conditions in space
5.2.4.2 Development of low-noise performance DC-DC converters
5.2.4.3 Converter interaction challenge
5.2.4.4 Customized requirements of high-end consumers
5.3 IMPACT OF COVID-19 ON SPACE POWER ELECTRONICS MARKET
FIGURE 22 IMPACT OF COVID-19 ON SPACE POWER ELECTRONICS MARKET
5.4 RANGES AND SCENARIOS
FIGURE 23 PESSIMISTIC, REALISTIC, AND OPTIMISTIC SCENARIOS OF SPACE POWER ELECTRONICS MARKET WITH REGARDS TO COVID-19 PANDEMIC:
5.5 TRENDS/DISRUPTION IMPACTING CUSTOMER BUSINESS
5.5.1 REVENUE SHIFT & NEW REVENUE POCKETS FOR SPACE POWER ELECTRONICS MARKET
FIGURE 24 REVENUE SHIFT FOR SPACE POWER ELECTRONICS MARKET PLAYERS
5.6 VALUE CHAIN ANALYSIS
FIGURE 25 VALUE CHAIN ANALYSIS
5.6.1 R&D
5.6.2 MANUFACTURER
5.6.3 ASSEMBLY & TESTING
5.6.4 END USE
5.7 PRICING ANALYSIS
5.7.1 AVERAGE SELLING PRICE OF KEY PLAYERS, BY APPLICATION
FIGURE 26 AVERAGE SELLING PRICES OF KEY PLAYERS FOR TOP 3 APPLICATIONS
TABLE 4 AVERAGE SELLING PRICES OF KEY PLAYERS FOR TOP 3 APPLICATIONS (USD)
5.8 SPACE POWER ELECTRONICS MARKET ECOSYSTEM
5.8.1 PROMINENT COMPANIES
5.8.2 PRIVATE AND SMALL ENTERPRISES
5.8.3 MARKET ECOSYSTEM
FIGURE 27 SPACE POWER ELECTRONICS MARKET ECOSYSTEM MAP
TABLE 5 SPACE POWER ELECTRONICS MARKET ECOSYSTEM
5.9 TRADE ANALYSIS
5.9.1 SPACE POWER ELECTRONICS MARKET – GLOBAL FORECAST TO 2026
5.9.1.1 Import Scenario of space power electronics market
TABLE 6 IMPORT VALUE OF AIRCRAFT AND SPACECRAFT SPARE PARTS (PRODUCT HARMONIZED SYSTEM CODE: 8803) (USD THOUSAND)
5.9.1.2 Export scenario of space power electronics market
TABLE 7 EXPORT VALUE OF AIRCRAFT AND SPACECRAFT SPARE PARTS (PRODUCT HARMONIZED SYSTEM CODE: 8803) (USD THOUSAND)
5.10 KEY CONFERENCES & EVENTS IN 2022-2023
TABLE 8 SPACE POWER ELECTRONICS MARKET: CONFERENCES & EVENTS
5.11 TARIFF AND REGULATORY LANDSCAPE
5.11.1 REGULATORY BODIES, GOVERNMENT AGENCIES, AND OTHER ORGANIZATIONS
TABLE 9 NORTH AMERICA: LIST OF REGULATORY BODIES, GOVERNMENT AGENCIES, AND OTHER ORGANIZATIONS
TABLE 10 EUROPE: LIST OF REGULATORY BODIES, GOVERNMENT AGENCIES, AND OTHER ORGANIZATIONS
TABLE 11 ASIA PACIFIC: LIST OF REGULATORY BODIES, GOVERNMENT AGENCIES, AND OTHER ORGANIZATIONS
5.11.2 NORTH AMERICA
5.11.3 EUROPE
5.11.3.1 UN Outer Space Treaty
5.11.3.2 Developers
5.11.4 ASIA PACIFIC
5.11.5 MIDDLE EAST & AFRICA
5.12 PORTER’S FIVE FORCES ANALYSIS
TABLE 12 SPACE POWER ELECTRONICS: PORTER’S FIVE FORCE ANALYSIS
FIGURE 28 POSTER FIVE FORCES ANALYSIS: SPACE POWER ELECTRONICS MARKET
5.12.1 THREAT OF NEW ENTRANTS
5.12.2 THREAT OF SUBSTITUTES
5.12.3 BARGAINING POWER OF SUPPLIERS
5.12.4 BARGAINING POWER OF BUYERS
5.12.5 INTENSITY OF COMPETITIVE RIVALRY
5.13 KEY STAKEHOLDERS & BUYING CRITERIA
5.13.1 KEY STAKEHOLDERS IN BUYING PROCESS
FIGURE 29 INFLUENCE OF STAKEHOLDERS IN BUYING PROCESS FOR TOP 3 APPLICATIONS
TABLE 13 INFLUENCE OF STAKEHOLDERS IN BUYING PROCESS FOR TOP 3 APPLICATIONS (%)
5.13.2 BUYING CRITERIA
FIGURE 30 KEY BUYING CRITERIA FOR TOP 3 APPLICATIONS
TABLE 14 KEY BUYING CRITERIA FOR TOP 3 APPLICATIONS
6 INDUSTRY TRENDS (Page No. - 79)
6.1 INTRODUCTION
6.2 TECHNOLOGY TRENDS
6.2.1 RADIATION-HARDENED GALLIUM NITRIDE POWER DEVICES
6.2.2 LOW POWER DC/DC CONVERTER MODULES
6.2.3 MODULAR ELECTRIC POWER SYSTEMS
6.2.4 MACHINE LEARNING-POWERED ANALYTICS
6.3 TECHNOLOGY ANALYSIS
6.3.1 SILICON CARBIDE
6.3.2 FIELD PROGRAMMABLE GATE ARRAYS
6.3.3 SWAP - SIZE, WEIGHT, AND POWER
6.4 PATENT ANALYSIS
TABLE 15 PATENTS RELATED TO SPACE POWER ELECTRONICS GRANTED BETWEEN 2017 AND 2021
6.5 USE CASES
6.5.1 USE CASE: SOLAR ARRAY PANELS FOR POWER GENERATION IN SATELLITES
6.5.2 USE CASE: SATELLITE RADIATION HARDNESS TEST
6.5.3 USE CASE: CUBESATS FOR INTERPLANETARY MISSIONS
6.6 IMPACT OF MEGATRENDS
6.6.1 DEVELOPMENT OF NEW-GENERATION CUBESATS FOR LUNAR EXPLORATION
6.6.2 USE OF RADIATION HARDENED POWER ELECTRONICS IN SPACE
6.6.3 CONVERGENCE OF TRADITIONAL AND NEW SPACE ELECTRONICS SOLUTIONS
7 SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE (Page No. - 86)
7.1 INTRODUCTION
FIGURE 31 POWER IC SEGMENT TO COMMAND LARGEST SHARE DURING FORECAST PERIOD
TABLE 16 SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 17 SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
7.2 POWER DISCRETE
7.2.1 DIODES
7.2.1.1 High demand for silicon carbide power diodes in solar panels on satellites
7.2.2 TRANSISTORS
7.2.2.1 GaN transistors widely used for Earth observation satellites and satellite internet
7.3 POWER MODULE
7.3.1 INTELLIGENT POWER MODULE (IPM)
7.3.1.1 Increasing use of COTS-based IPM lowers space mission costs
7.3.2 STANDARD AND INTEGRATED POWER MODULES (MOSFETS, IGBT)
7.3.2.1 Increasing use of radiation hardened power MOSFETs in satellites, spacecraft, and space stations
7.4 POWER IC
7.4.1 POWER MANAGEMENT IC
7.4.1.1 Key focus on developing CubeSats for communication and testing emerging technologies
7.4.2 APPLICATION-SPECIFIC IC
7.4.2.1 Increased investments in satellites help develop more application-specific ICs
8 SPACE POWER ELECTRONICS MARKET, BY PLATFORM (Page No. - 91)
8.1 INTRODUCTION
FIGURE 32 COMMAND & DATA HANDLING SEGMENT PROJECTED TO REGISTER HIGHEST CAGR DURING FORECAST PERIOD
TABLE 18 SPACE POWER ELECTRONICS MARKET, BY PLATFORM, 2018–2020 (USD MILLION)
TABLE 19 SPACE POWER ELECTRONICS MARKET, BY PLATFORM, 2021–2026 (USD MILLION)
8.2 POWER
8.2.1 DEMAND FOR HIGH EFFICIENCY ELECTRICAL POWER AND DISTRIBUTION SYSTEMS ON THE RISE
8.3 COMMAND & DATA HANDLING
8.3.1 INCREASING DEMAND FOR LOW POWER CONSUMPTION COMMAND & DATA HANDLING FOR NANOSATELLITES
8.4 ATTITUDE DETERMINATION & CONTROL SYSTEM (ADCS)
8.4.1 DEMAND FOR HIGH EFFICIENCY RADIATION HARDENED INTERFACE FOR ADCS
8.5 PROPULSION
8.5.1 NEED FOR INNOVATIVE POWER SYSTEMS FOR ELECTRICAL PROPULSION
8.6 TELEMETRY TRACKING & COMMAND SYSTEM (TT&C)
8.6.1 INCREASING SATELLITE LAUNCHES INCREASES DEMAND FOR TT&C
8.7 STRUCTURE
8.7.1 DEVELOPMENT OF MULTI-FUNCTIONAL STRUCTURES – KEY DRIVER
8.8 THERMAL SYSTEM
8.8.1 CRITICAL TO MAINTAINING OPTIMAL TEMPERATURE IN SPACECRAFT
9 SPACE POWER ELECTRONICS MARKET, BY APPLICATION (Page No. - 97)
9.1 INTRODUCTION
FIGURE 33 SPACECRAFT & LAUNCH VEHICLES TO GROW FASTEST DURING FORECAST PERIOD
TABLE 20 SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 21 SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
9.2 SATELLITES
9.2.1 INCREASING DEPLOYMENT OF CUBESATS IN INTERPLANETARY MISSIONS BOOSTS SEGMENT
9.3 SPACECRAFT & LAUNCH VEHICLES
9.3.1 USE OF REUSABLE LAUNCH VEHICLES REDUCES SPACE MISSION COSTS
9.4 ROVERS
9.4.1 SPACE-GRADE MOSFETS, ICS IN ROVERS WIDELY USED FOR DEEP SPACE EXPLORATION
9.5 SPACE STATIONS
9.5.1 LAUNCH OF CREWED SPACECRAFT TO INTERNATIONAL SPACE STATION FUELS GROWTH
10 SPACE POWER ELECTRONICS MARKET, BY VOLTAGE (Page No. - 102)
10.1 INTRODUCTION
FIGURE 34 LOW VOLTAGE SEGMENT PROJECTED TO REGISTER HIGHEST CAGR DURING FORECAST PERIOD
TABLE 22 SPACE POWER ELECTRONICS MARKET, BY VOLTAGE, 2018–2020 (USD MILLION)
TABLE 23 SPACE POWER ELECTRONICS MARKET, BY VOLTAGE, 2021–2026 (USD MILLION)
10.2 LOW VOLTAGE (BELOW 28V)
10.2.1 SEGMENT DRIVEN BY USE OF GAN FIELD-EFFECT TRANSISTORS (FET) IN SMALL SATELLITES
10.3 MEDIUM VOLTAGE (28V – 80V)
10.3.1 INCREASING USE OF MODULAR ELECTRIC POWER SYSTEMS BOOSTS SEGMENT
10.4 HIGH VOLTAGE (ABOVE 80V)
10.4.1 INCREASING USE OF HIGH VOLTAGE POWER MODULES FUELS GROWTH
11 SPACE POWER ELECTRONICS MARKET, BY CURRENT (Page No. - 105)
11.1 INTRODUCTION
FIGURE 35 UP TO 25A SEGMENT TO DOMINATE DURING FORECAST PERIOD
TABLE 24 SPACE POWER ELECTRONICS MARKET, BY CURRENT, 2018–2020 (USD MILLION)
TABLE 25 SPACE POWER ELECTRONICS MARKET, BY CURRENT, 2021–2026 (USD MILLION)
11.2 UP TO 25 A
11.2.1 INCREASING LAUNCH OF DEEP-SPACE EXPLORATION MISSIONS BOOSTS SEGMENT
11.3 25–50 A
11.3.1 RAPID MINIATURIZATION OF PAYLOADS FACILITATES USE OF SATELLITES FOR SCIENCE MISSIONS
11.4 OVER 50 A
11.4.1 NEED FOR HIGH-DENSITY POWER TO MAINTAIN ‘NEW SPACE’ GROWTH
12 SPACE POWER ELECTRONICS MARKET, BY MATERIAL (Page No. - 109)
12.1 INTRODUCTION
FIGURE 36 SILICON SEGMENT TO LEAD DURING FORECAST PERIOD
TABLE 26 SPACE POWER ELECTRONICS MARKET, BY MATERIAL, 2018–2020 (USD MILLION)
TABLE 27 SPACE POWER ELECTRONICS MARKET, BY MATERIAL, 2021–2026 (USD MILLION)
12.2 SILICON
12.2.1 PERFORMANCE, RELIABILITY, AND FLIGHT HERITAGE DRIVE SILICON MOSFET USAGE
12.3 SILICON CARBIDE
12.3.1 USED TO REDUCE SPACECRAFT MASS AND INCREASE FUNCTIONAL CAPACITY
12.4 GALLIUM NITRIDE
12.4.1 USED TO POWER VARIOUS DEEP-SPACE APPLICATIONS
12.5 OTHERS
13 REGIONAL ANALYSIS (Page No. - 113)
13.1 INTRODUCTION
13.2 COVID-19 IMPACT
TABLE 28 SPACE POWER ELECTRONICS MARKET, BY REGION, 2018–2020 (USD MILLION)
TABLE 29 SPACE POWER ELECTRONICS MARKET, BY REGION, 2021–2026 (USD MILLION)
13.3 NORTH AMERICA
13.3.1 NORTH AMERICA: COVID-19 IMPACT
13.3.2 PESTLE ANALYSIS: NORTH AMERICA
FIGURE 37 NORTH AMERICA: SPACE POWER ELECTRONICS MARKET SNAPSHOT
TABLE 30 NORTH AMERICA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 31 NORTH AMERICA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 32 NORTH AMERICA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 33 NORTH AMERICA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 34 NORTH AMERICA: SPACE POWER ELECTRONICS MARKET, BY COUNTRY, 2018–2020 (USD MILLION)
TABLE 35 NORTH AMERICA: SPACE POWER ELECTRONICS MARKET, BY COUNTRY, 2021–2026 (USD MILLION)
13.3.3 US
13.3.3.1 Use of radiation-fault-tolerant DC-DC converter power modules in small satellites drives market
TABLE 36 US: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 37 US: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 38 US: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 39 US: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.3.4 CANADA
13.3.4.1 Ongoing developments in planetary exploration to drive market in Canada
TABLE 40 CANADA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 41 CANADA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 42 CANADA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 43 CANADA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.4 EUROPE
13.4.1 COVID-19 IMPACT ON EUROPE
13.4.2 PESTLE ANALYSIS: EUROPE
FIGURE 38 EUROPE: SPACE POWER ELECTRONICS MARKET SNAPSHOT
TABLE 44 EUROPE: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 45 EUROPE: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 46 EUROPE: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 47 EUROPE: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 48 EUROPE: SPACE POWER ELECTRONICS MARKET, BY COUNTRY, 2018–2020 (USD MILLION)
TABLE 49 EUROPE: SPACE POWER ELECTRONICS MARKET, BY COUNTRY, 2021–2026 (USD MILLION)
13.4.3 RUSSIA
TABLE 50 RUSSIA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 51 RUSSIA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 52 RUSSIA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 53 RUSSIA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.4.4 GERMANY
13.4.4.1 Increasing budget for space missions to fuel market
TABLE 54 GERMANY: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 55 GERMANY: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 56 GERMANY: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 57 GERMANY: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.4.5 FINLAND
13.4.5.1 Increasing partnerships among local companies to drive market
TABLE 58 FINLAND: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 59 FINLAND: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 60 FINLAND: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 61 FINLAND: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.4.6 UK
13.4.6.1 Partnerships between UK Space Agency, NASA, and others to drive market
TABLE 62 UK: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 63 UK: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 64 UK: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 65 UK: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.4.7 ITALY
13.4.7.1 Increasing number of remote sensing satellites fuels market
TABLE 66 ITALY: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 67 ITALY: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 68 ITALY: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 69 ITALY: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.4.8 REST OF EUROPE
TABLE 70 REST OF EUROPE: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 71 REST OF EUROPE: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 72 REST OF EUROPE: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 73 REST OF EUROPE: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.5 ASIA PACIFIC
13.5.1 COVID-19 IMPACT: ASIA PACIFIC
13.5.2 PESTLE ANALYSIS: ASIA PACIFIC
FIGURE 39 ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET SNAPSHOT
TABLE 74 ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 75 ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 76 ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 77 ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 78 ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY COUNTRY, 2018–2020 (USD MILLION)
TABLE 79 ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY COUNTRY, 2021–2026 (USD MILLION)
13.5.3 CHINA
13.5.3.1 Advancements in space missions and endeavors like Chinese space station drive market growth
TABLE 80 CHINA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 81 CHINA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 82 CHINA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 83 CHINA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.5.4 INDIA
13.5.4.1 Thriving telecommunications industry to drive Indian market for space power electronics
TABLE 84 INDIA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 85 INDIA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 86 INDIA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 87 INDIA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.5.5 JAPAN
13.5.5.1 Involvement of private space companies in government space programs to drive market
TABLE 88 JAPAN: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 89 JAPAN: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 90 JAPAN: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 91 JAPAN: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.5.6 REST OF ASIA PACIFIC
TABLE 92 REST OF ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 93 REST OF ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 94 REST OF ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 95 REST OF ASIA PACIFIC: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.6 REST OF THE WORLD
13.6.1 COVID-19 IMPACT ON REST OF THE WORLD
13.6.2 PESTLE ANALYSIS: REST OF THE WORLD
TABLE 96 REST OF THE WORLD: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 97 REST OF THE WORLD: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 98 REST OF THE WORLD: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 99 REST OF THE WORLD: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 100 REST OF THE WORLD: SPACE POWER ELECTRONICS MARKET, BY REGION, 2018–2020 (USD MILLION)
TABLE 101 REST OF THE WORLD: SPACE POWER ELECTRONICS MARKET, BY REGION, 2021–2026 (USD MILLION)
13.6.3 MIDDLE EAST
13.6.3.1 Government focus on enhancing military space applications supports market growth
TABLE 102 MIDDLE EAST: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 103 MIDDLE EAST: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 104 MIDDLE EAST: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 105 MIDDLE EAST: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.6.4 AFRICA
13.6.4.1 ongoing involvement in nanosatellite launches stimulates market growth
TABLE 106 AFRICA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 107 AFRICA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 108 AFRICA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 109 AFRICA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
13.6.5 LATIN AMERICA
13.6.5.1 Continued tie-ups with foreign space agencies for space missions will drive market
TABLE 110 LATIN AMERICA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2018–2020 (USD MILLION)
TABLE 111 LATIN AMERICA: SPACE POWER ELECTRONICS MARKET, BY DEVICE TYPE, 2021–2026 (USD MILLION)
TABLE 112 LATIN AMERICA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2018–2020 (USD MILLION)
TABLE 113 LATIN AMERICA: SPACE POWER ELECTRONICS MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
14 COMPETITIVE LANDSCAPE (Page No. - 154)
14.1 INTRODUCTION
14.2 COMPANY OVERVIEW
TABLE 114 KEY DEVELOPMENTS OF LEADING PLAYERS IN SPACE POWER ELECTRONICS MARKET (2019-2021)
14.3 RANKING ANALYSIS OF KEY PLAYERS IN SPACE POWER ELECTRONICS MARKET,2021
FIGURE 40 RANKING OF KEY PLAYERS IN SPACE POWER ELECTRONICS MARKET, 2021
14.4 REVENUE ANALYSIS,2021
FIGURE 41 REVENUE ANALYSIS OF KEY COMPANIES IN SPACE POWER ELECTRONICS MARKET
14.5 MARKET SHARE ANALYSIS,2021
TABLE 115 SPACE POWER ELECTRONICS MARKET: DEGREE OF COMPETITION
14.6 COMPETITIVE EVALUATION QUADRANT
14.6.1 STAR
14.6.2 EMERGING LEADER
14.6.3 PERVASIVE
14.6.4 PARTICIPANT
FIGURE 42 SPACE POWER ELECTRONICS MARKET COMPETITIVE LEADERSHIP MAPPING, 2021
14.7 STARTUP/SME EVALUATION QUADRANT
14.7.1 PROGRESSIVE COMPANY
14.7.2 RESPONSIVE COMPANY
14.7.3 STARTING BLOCK
14.7.4 DYNAMIC COMPANY
FIGURE 43 SPACE POWER ELECTRONICS MARKET (STARTUP/SME) COMPETITIVE LEADERSHIP MAPPING, 2020
14.7.4.1 Competitive benchmarking
TABLE 116 SPACE POWER ELECTRONICS MARKET: DETAILED LIST OF KEY STARTUP/SMES
14.8 COMPETITIVE SCENARIO
TABLE 117 NEW PRODUCT LAUNCHES, 2019–MARCH 2022
TABLE 118 CONTRACTS, PARTNERSHIPS, AND AGREEMENTS, 2019–MARCH 2022
TABLE 119 EXPANSIONS AND COLLABORATIONS, 2019–MARCH 2022
15 COMPANY PROFILES (Page No. - 172)
(Business Overview, Products Offered, Recent Developments, MnM View Right to win, Strategic choices made, Weaknesses and competitive threats) *
15.1 INTRODUCTION
15.2 KEY PLAYERS
15.2.1 INFINEON TECHNOLOGIES
TABLE 120 INFINEON TECHNOLOGIES: BUSINESS OVERVIEW
FIGURE 44 INFINEON TECHNOLOGIES: COMPANY SNAPSHOT
TABLE 121 INFINEON TECHNOLOGIES: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 122 INFINEON TECHNOLOGIES: DEALS
TABLE 123 INFINEON TECHNOLOGIES: OTHERS
15.2.2 TEXAS INSTRUMENTS INCORPORATED
TABLE 124 TEXAS INSTRUMENTS INCORPORATED: BUSINESS OVERVIEW
FIGURE 45 TEXAS INSTRUMENTS INCORPORATED: COMPANY SNAPSHOT
TABLE 125 TEXAS INSTRUMENTS INCORPORATED: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 126 TEXAS INSTRUMENTS INCORPORATED: PRODUCT LAUNCHES
TABLE 127 TEXAS INSTRUMENTS INCORPORATED: OTHERS
15.2.3 STMICROELECTRONICS
TABLE 128 STMICROELECTRONICS: BUSINESS OVERVIEW
FIGURE 46 STMICROELECTRONICS: COMPANY SNAPSHOT
TABLE 129 STMICROELECTRONICS: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 130 STMICROELECTRONICS: DEALS
TABLE 131 STMICROELECTRONICS: PRODUCT LAUNCHES
15.2.4 ONSEMI
TABLE 132 ONSEMI: BUSINESS OVERVIEW
FIGURE 47 ONSEMI: COMPANY SNAPSHOT
TABLE 133 ONSEMI: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 134 ONSEMI: DEALS
15.2.5 RENESAS ELECTRONICS CORPORATION
TABLE 135 RENESAS ELECTRONICS CORPORATION: BUSINESS OVERVIEW
FIGURE 48 RENESAS ELECTRONICS CORPORATION: COMPANY SNAPSHOT
TABLE 136 RENESAS ELECTRONICS CORPORATION: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 137 RENESAS ELECTRONICS CORPORATION: DEALS
TABLE 138 RENESAS ELECTRONICS CORPORATION: PRODUCT LAUNCHES
15.2.6 BAE SYSTEMS PLC
TABLE 139 BAE SYSTEMS PLC: BUSINESS OVERVIEW
FIGURE 49 BAE SYSTEMS PLC: COMPANY SNAPSHOT
TABLE 140 BAE SYSTEMS PLC: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 141 BAE SYSTEMS PLC: DEALS
15.2.7 ANALOG DEVICES, INC.
TABLE 142 ANALOG DEVICES INC: BUSINESS OVERVIEW
FIGURE 50 ANALOG DEVICES INC.: COMPANY SNAPSHOT
TABLE 143 ANALOG DEVICES INC.: PRODUCT/SOLUTIONS/SERVICES OFFERED
15.2.8 VISHAY INTERTECHNOLOGY, INC.
TABLE 144 VISHAY INTERTECHNOLOGY INC.: BUSINESS OVERVIEW
FIGURE 51 VISHAY INTERTECHNOLOGY INC.: COMPANY SNAPSHOT
TABLE 145 VISHAY INTERTECHNOLOGY INC.: PRODUCT/SOLUTIONS/SERVICES OFFERED
15.2.9 NXP SEMICONDUCTORS
TABLE 146 NXP SEMICONDUCTORS: BUSINESS OVERVIEW
FIGURE 52 NXP SEMICONDUCTORS: COMPANY SNAPSHOT
TABLE 147 NXP SEMICONDUCTORS: PRODUCT/SOLUTIONS/SERVICES OFFERED
15.2.10 CRANE CO.
TABLE 148 CRANE CO.: BUSINESS OVERVIEW
FIGURE 53 CRANE CO.: COMPANY SNAPSHOT
TABLE 149 CRANE CO.: PRODUCT/SOLUTIONS/SERVICES OFFERED
15.2.11 HEICO CORPORATION
TABLE 150 HEICO CORPORATION: BUSINESS OVERVIEW
FIGURE 54 HEICO CORPORATION: COMPANY SNAPSHOT
TABLE 151 HEICO CORPORATION: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 152 HEICO CORPORATION: DEALS
TABLE 153 HEICO CORPORATION: PRODUCT LAUNCHES
15.2.12 MICROCHIP TECHNOLOGY INC.
TABLE 154 MICROCHIP TECHNOLOGY INC: BUSINESS OVERVIEW
FIGURE 55 MICROCHIP TECHNOLOGY INC.: COMPANY SNAPSHOT
TABLE 155 MICROCHIP TECHNOLOGY INC.: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 156 MICROCHIP TECHNOLOGY INC.: PRODUCT LAUNCHES
TABLE 157 MICROCHIP TECHNOLOGY INC.: DEALS
TABLE 158 MICROCHIP TECHNOLOGY INC.: OTHERS
15.2.13 COBHAM LIMITED
TABLE 159 COBHAM LIMITED: BUSINESS OVERVIEW
TABLE 160 COBHAM LIMITED: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 161 COBHAM LIMITED: DEALS
TABLE 162 COBHAM LIMITED: PRODUCT LAUNCHES
15.2.14 AIRBUS
TABLE 163 AIRBUS: BUSINESS OVERVIEW
FIGURE 56 AIRBUS: COMPANY SNAPSHOT
TABLE 164 AIRBUS: PRODUCT/SOLUTIONS/SERVICES OFFERED
TABLE 165 AIRBUS: DEALS
15.2.15 RUAG GROUP
TABLE 166 RUAG GROUP: BUSINESS OVERVIEW
FIGURE 57 RUAG GROUP: COMPANY SNAPSHOT
TABLE 167 RUAG GROUP: PRODUCT/SOLUTIONS/SERVICES OFFERED
15.3 OTHER PLAYERS
15.3.1 EPC SPACE LLC
15.3.2 ALPHACORE INC.
15.3.3 GOMSPACE: COMPANY OVERVIEW
15.3.4 GAN SYSTEMS INC.
15.3.5 API TECHNOLOGIES
15.3.6 WOLFSPEED INC.
15.3.7 TT ELECTRONICS
15.3.8 TERMA GROUP
15.3.9 VICOR CORPORATION
15.3.10 SOLID STATE DEVICES, INC.
*Details on Business Overview, Products Offered, Recent Developments, MnM View, Right to win, Strategic choices made, Weaknesses and competitive threats might not be captured in case of unlisted companies.
16 APPENDIX (Page No. - 233)
16.1 DISCUSSION GUIDE
16.2 KNOWLEDGESTORE: MARKETSANDMARKETS’ SUBSCRIPTION PORTAL
16.3 AVAILABLE CUSTOMIZATIONS
16.4 RELATED REPORTS
16.5 AUTHOR DETAILS
The study involved various activities in estimating the current size of the space power electronics market. Exhaustive secondary research was done to collect information on the space power electronics market, its adjacent markets, and its parent market. The next step was to validate these findings, assumptions, and sizing with industry experts across the value chain through primary research. Demand-side analyses were carried out to estimate the overall size of the market. Thereafter, market breakdown and data triangulation procedures were used to estimate the sizes of different segments and subsegments of the space power electronics market.
Secondary Research
The market ranking of companies was determined using the secondary data made available through paid and unpaid sources and by analyzing the product portfolios of major companies. These companies were rated on the basis of performance and quality of their products. These data points were further validated by primary sources.
Secondary sources referred to, for this research study include financial statements of companies offering space power electronics and information from various trade, business, and professional associations. The secondary data was collected and analyzed to arrive at the overall size of the space power electronics market, which was validated by primary respondents.
Primary Research
Extensive primary research was conducted after acquiring information regarding the space power electronics market scenario through secondary research. Several primary interviews were conducted with market experts from both the demand and supply sides across major countries of North America, Europe, Asia Pacific, and the Rest of the World. Primary data was collected through questionnaires, emails, and telephonic interviews.
To know about the assumptions considered for the study, download the pdf brochure
Market Size Estimation
The market sizing of the market was undertaken from the supply side. The power electronics penetration was applied to the market value of satellites, spacecraft & launch vehicles, and rovers to derive the market size of space power electronics by each of these platforms.
Note: All the launches of satellites, spacecraft & launch vehicles, and rovers over the historical and estimated years were mapped to arrive at the CAGR and understand the market dynamics of all countries in the report.
Space Power Electronics Market Size: Top-Down Approach:
Data Triangulation
After arriving at the overall size of the space power electronics market from the market size estimation process explained above, the total market was split into several segments and subsegments. The data triangulation and market breakdown procedures explained below were implemented, wherever applicable, to complete the overall market engineering process and arrive at the exact statistics for various segments and subsegments of the market. The data was triangulated by studying various factors and trends from both, the demand and supply sides. The market size was validated using both, the top-down and bottom-up approaches.
Report Objectives
- To define, describe, segment, and forecast the size of the space power electronics market based on device, platform, application, voltage, current, material, and region from 2021 to 2026
- To forecast the size of various segments of the market with respect to four regions: North America, Europe, Asia Pacific, and the Rest of the World (RoW), along with major countries in each of them
- To identify and analyze the key drivers, restraints, opportunities, and challenges influencing the growth of the market
- To identify opportunities for stakeholders in the market by studying key market and technology trends
- To strategically analyze micromarkets1 with respect to individual growth trends, prospects, and contribution to the overall market
- To analyze competitive developments such as contracts, agreements, acquisitions & partnerships, new product launches & developments, and R&D activities in the market
- To estimate the procurement of space power electronics by different countries to track technological advancements in the market
- To provide a comprehensive competitive landscape of the market along with an overview of the different strategies adopted by key players to strengthen their position
- To strategically profile key market players and comprehensively analyze their market ranking and core competencies
Available Customizations
MarketsandMarkets offers the following customizations for this market report:
Additional country-level analysis of the space power electronics market
Profiling of additional market players (up to 5)
Product Analysis
- Product matrix, which provides a detailed comparison of the product portfolio of each company in the space power electronics market
Generating Response ...
Growth opportunities and latent adjacency in Space Power Electronics Market