Customized Version - Global and Chinese Power Inductor Market Report (2026-2031)
Description
From a macro perspective, the global passive components industry (capacitors, resistors, inductors, etc.) remains on a long-term trajectory of moderate growth plus structural upgrading. According to research and estimation by QYResearch, the global passive components market size reached 47.452 billion US dollars in 2024, and is projected to hit 67.206 billion US dollars by 2031, representing a Compound Annual Growth Rate (CAGR) of 6.17% from 2025 to 2031. In terms of market structure by value in 2024, capacitors accounted for the largest share at 65.93%, followed by inductors at 18.24%, and resistors at approximately 15.83%. In high-value-added sectors (automotive-grade, industrial control, power management), the average price of inductors is significantly higher than that of consumer-grade components. Geographically, the Asia-Pacific region (especially the Chinese mainland, Japan, South Korea, and Taiwan China) remains the core production and export hub, while Europe and North America continue to drive strong demand in high-reliability applications and the downstream system integration segment. On the policy front, industrial policies of various countries focused on semiconductors, automotive electrification, 5G/6G, renewable energy and digital infrastructure are not directly targeted at passive components, but in essence, they provide a medium-to-long-term policy support floor for the industry by boosting shipments of complete equipment and raising the level of electrification across end products.
The global inductor market is in a relatively high mid-speed growth range, with its internal structure clearly shifting toward high-reliability and high-performance categories such as power inductors, RF inductors and automotive-grade inductors. According to QYResearch, the global inductor market size stood at about 8.653 billion US dollars in 2024, and is expected to reach 13.075 billion US dollars by 2031, with a CAGR of approximately 6.95% from 2025 to 2031. Among them, power inductors are the absolute core sub-segment: the global power inductor market reached 5.376 billion US dollars in 2024, with a projected CAGR of about 7.7% from 2025 to 2031, and is expected to approach 8.849 billion US dollars by 2031. Automotive power inductors and power inductors for servers/data centers are seeing even higher growth, with their CAGRs reaching 10.89% and 12.48% respectively from 2025 to 2031. Overall, power inductors are the main growth driver of the inductor industry, while traditional low-end signal inductors are experiencing slowing growth, and some categories have even entered a phase of stock competition.
In terms of driving factors and policies, the core logic underpinning the growth of the global passive components, inductor and power inductor markets can be summarized into three main themes. First, computing power + connectivity is driving an increase in the power consumption density of electronic systems. AI servers, cloud data centers, high-performance PCs, 5G base stations, optical modules and high-end routing and switching equipment are seeing a growing reliance on multi-phase Voltage Regulator Modules (VRM), power modules and Point-of-Load (PoL) power supplies, which in turn is fueling a surge in demand for miniaturized, high-current, low-loss power inductors and high-frequency inductors. Second, transportation electrification + rising penetration of on-board electronics has made automotive-grade power inductors one of the fastest-growing sub-segments in the industry. Third, electrification and digitalization of industry and energy – including industrial control servos, photovoltaic inversion, energy storage Power Conversion Systems (PCS) and charging infrastructure – is driving sustained demand for high-reliability, high-temperature and high-voltage resistance power inductors. Coupled with policy support for new energy, intelligent manufacturing, localized supply chains and energy efficiency in regions such as the US, the EU, China, Japan, South Korea and India, inductors and power inductors are poised to capture structural opportunities in the medium-to-long term supported by both policy backing and booming demand across multiple downstream sectors.
In terms of applications, PCs and general consumer electronics (smartphones, tablets, wearables, game consoles, TVs, audio equipment, robotic vacuums, VR/AR, etc.) remain the largest demand segment for power inductors, characterized by high shipment volumes, high cost performance and rapid iteration. Consumer electronics and computer electronics have long been among the end industries with the largest demand for components such as Multi-layer Ceramic Capacitors (MLCC), resistors and inductors. In the PC sector, multi-phase Buck converters/VRMs supply power to CPUs/GPUs, Platform Controller Hubs (PCH), memory and high-bandwidth peripherals, with each phase requiring a high-current, low DC resistance (DCR) power inductor. High-end gaming laptops, workstations and AI-enabled PCs have even higher requirements for power supply transient response and current capacity, leading to both higher usage volume and a higher average selling price (ASP) per unit for medium and large-sized shielded integrated molded inductors compared with traditional thin and light laptops. On the consumer electronics side, smartphone SoCs/application processors, Power Management Integrated Circuits (PMIC), RF Power Amplifiers (RF PA), display modules, motors and audio modules all adopt multi-channel buck/boost topologies, creating tremendous demand for 1–5A miniature power inductors. Wearables and True Wireless Stereo (TWS) devices emphasize ultra-miniature packaging and low loss, driving the penetration of thin-film, molded and metal composite inductors in high-end products. Overall, the power inductor market for PCs and consumer electronics is characterized by volume-driven demand and rising per-unit value. The competitive landscape is dominated by Japanese, South Korean and Taiwanese manufacturers such as Delta Electronics (Cyntec), TDK, Murata Manufacturing, Yageo, Taiyo Yuden, Samsung Electro-Mechanics and Vishay, while Chinese manufacturers (Sunlord Electronics, Microgate Technology, etc.) are accelerating localization substitution in medium and low-voltage consumer applications.
Servers & data centers, network communications (including 5G), and industrial control equipment form a high power & high reliability demand cluster for power inductors. Inductors play a key role in power supply and signal links in data centers, used for EMI/noise suppression; in 5G base stations and high-frequency communication systems, they serve as one of the core components for RF matching and filtering. AI servers and high-density rack servers generally adopt dozens or even hundreds of phases of VRM, with CPUs/GPUs/acceleration cards, HBM/DDR, power backplanes and high-speed interface boards all requiring high-current power inductors. Combined with the 48V–12V–1V multi-stage power supply architecture, this results in a significantly higher per-unit value of power inductors for a single server compared with traditional servers. In network communications, motherboards, line cards and power boards in 5G/FTTx/high-end routing and switching equipment use both high-frequency RF inductors and a large number of power inductors; market analysis of high-frequency inductors shows that communications, automotive electronics, consumer electronics and industrial equipment are the core application segments for high-frequency inductors. Industrial control equipment (PLC, frequency converters, servo drives, industrial power supplies, etc.) places greater emphasis on wide temperature range, long service life and resistance to harsh working conditions, creating strong demand for high-reliability power inductors such as integrated molded, iron powder core and metal composite types. Overall, in the competitive landscape, Japanese brands (TDK, Murata, Taiyo Yuden, Panasonic, Sumida, Sagami Elec), Taiwanese brands (Delta Electronics (Cyntec), Yageo, Trio Technology, TAI-TECH Advanced Electronics, Arlitech Electronic, Mazo) and European and American manufacturers (Vishay, Bourns, Coilcraft, Eaton) hold the main market share of high-end power inductors for servers, telecommunications and industrial control. A small number of Chinese manufacturers have achieved partial penetration in industrial control power supplies and medium and low-speed communication equipment, and with the advancement of localization for domestic servers, 5G and industrial automation in China, domestic power inductors have significant penetration potential in these fields.
On the automotive front, the rising penetration of EV/HEV coupled with the popularization of intelligent cockpits and Advanced Driver Assistance Systems (ADAS) is driving dual growth in demand volume and per-vehicle value for automotive-grade power inductors. On the one hand, the body/chassis and powertrain (including OBC, DC-DC, BMS, electric drive control) extensively use AEC-Q200 certified integrated molded or metal composite power inductors with high current and wide temperature range performance; on the other hand, ""dozens of Electronic Control Units (ECU)"" such as cameras, radars, domain controllers and infotainment systems are all equipped with multi-channel PoL power supplies, requiring miniature automotive-grade power inductors. The CAGR of automotive power inductors from 2025 to 2031 is significantly higher than that of the overall power inductor market.
For home appliances and major home appliances (refrigerators, washing machines, air conditioners, kitchen and bathroom appliances, power tools, etc.), although the per-unit usage quantity and ASP are lower than those for automotive and server applications, driven by the adoption of inverter technology and high energy efficiency policies, the demand for power inductors in inverter compressors, motor drives and power boards is continuously upgrading, making this segment one of the steady cash flow sources for passive component manufacturers laying out the ""home appliance + industry"" track. The security and surveillance system segment (PoE cameras, NVR, PoE switches, etc.) is a medium and small-scale segment with structural boom: the trends of PoE adoption and AI integration are raising the power density of front-end cameras and back-end equipment, driving sustained growth in demand for high-reliability, miniature shielded power inductors and Power over Coax (PoC) inductors. Based on an estimate of all application segments, the future demand structure of power inductors will show the following characteristics: PCs and consumer electronics will maintain volume leadership; automotive, server/data center and industrial control will drive incremental growth; communications, home appliances, security and emerging applications (AR/VR, energy storage, power tools, etc.) will provide additional growth flexibility. Industry competition will also accelerate differentiation around these booming applications.
From the industrial chain perspective, power inductors are a typical passive component sub-segment characterized by material-driven, process-driven and downstream diversification. The upstream sector mainly includes soft magnetic materials (Mn-Zn/Ni-Zn ferrite powder, iron powder core, metal composite powder, etc.), magnetic cores and bobbins, enameled wire and copper foil, resins and packaging materials, as well as specialized equipment and process chemicals for sintering, molding and electroplating. Leading manufacturers such as Delta Electronics (Cyntec), TDK and Murata rely heavily on independently developed iron-based alloy powder and composite molding processes for their latest generation of metal alloy power inductors and automotive-grade metal alloy inductors, thereby achieving high saturation magnetic flux density, excellent DC bias characteristics and low loss; this makes upstream material technology a key constraint on the performance and cost of power inductors. The midstream sector covers the design and manufacturing of power inductors, concentrated in Japan, Taiwan China, South Korea and the Chinese mainland, with representative manufacturers including Delta Electronics (Cyntec), TDK, Murata Manufacturing, Taiyo Yuden, Samsung Electro-Mechanics, Yageo, Vishay, and Chinese manufacturers such as Sunlord Electronics and Microgate Technology. Their core competitiveness lies in magnetic material formulation and simulation design, winding and molding processes, miniaturized packaging technology and reliability verification systems, as well as the understanding and execution capabilities of automotive and industrial grade certification systems. The downstream sector covers diverse industries including PCs, smart terminals, servers and data centers, automotive electronics, industrial control, communications, home appliances and security, with power inductors generally being adopted on a large scale through EMS/ODM manufacturers or module suppliers (power modules, PD/PoE modules, on-board ECU modules). In summary, the power inductor industrial chain is highly geographically concentrated in the Asia-Pacific region and highly technologically concentrated in a small number of leading Japanese and Taiwanese enterprises. However, Chinese local manufacturers have achieved meaningful breakthroughs in consumer electronics, home appliances and some industrial control/communication fields, and the industrial chain is evolving with the characteristics of high-end concentration, low and mid-end fragmentation and accelerated localization substitution.
Synthesizing information from the overall passive components market, the global inductor market and key downstream applications, a clear judgment can be made: power inductors will maintain medium-to-high speed growth in the next 5–10 years, outpacing the overall growth rate of traditional passive components, and will be one of the sub-segments with the most structural opportunities in the passive components industry. On the one hand, the demand for computing power + connectivity from AI servers, cloud data centers, 5G/6G, PCs/high-end laptops and general consumer electronics will continue to drive the evolution of high-frequency and high-power density power supply architectures, boosting the continuous upgrading of miniaturized, high-current and low-loss power inductors. On the other hand, automotive electrification and intelligence, the electrification of power systems in industry and energy, and the high energy efficiency and intelligent transformation of home appliances and security systems will form another steady demand curve, sustaining long-term boom in the demand for automotive and industrial grade power inductors. At the same time, the industry is facing challenges such as price cycles, inventory fluctuations, geopoliticization of supply chains, and technological substitution from on-chip integrated inductors and modular power supplies. However, based on existing technologies and reliability requirements, high-current, wide-temperature and long-service-life scenarios are still difficult to completely decouple from discrete power inductors. For industrial chain participants, the key to future competition lies in four aspects: (1) Mastering advanced magnetic materials and high-end processes such as integrated molding/metal alloy technology to achieve systematic optimization of performance and cost; (2) Establishing a stable Tier-1 customer base in booming applications such as automotive, server/data center, industrial control and communications; (3) Realizing localized layout and service capabilities in emerging manufacturing and demand hubs such as China and ASEAN; (4) Enhancing the discourse power in solutions at the OEM/ODM end through modularization, power supply solution capabilities and system-level collaboration. If manufacturers can gain advantages in the above dimensions, they are expected to obtain long-term and sustainable excess returns in the new wave of power electronics + digitalization + automotive electrification in the global electronics industry.
Market Segmentation
By Company
TDK
Murata
YAGEO (Chilisin)
Delta Electronics (Cyntec)
Taiyo Yuden
Sunlord Electronics
Microgate Technology
Samsung Electro-Mechanics
Vishay Intertechnology
Panasonic
Sumida
Coilcraft
Sagami Elec
MinebeaMitsumi
Laird Technologies
Kyocera AVX
Bel Fuse
Littelfuse
Würth Elektronik
Inpaq Technology
Zhenhua Fu Electronics
Fenghua Advanced
Shenzhen Yigan Technology
Darfon Electronics
Bourns
TAI-TECH Advanced Electronics
Arlitech Electronic
ABC Taiwan Electronics
Trio Technology
Segment by Application
Automotive Electronics
Consumer Electronics (Mobile Phones, Wearables, etc.)
PC
Servers & Data Centers
Industrial Control
Network Communications
Home Appliances
Security and Monitoring Systems
Others
Chapter Outline
Chapter 1: Overall Status of the Global Passive Components, Inductor and Power Inductor Industry
Chapter 2: Introduction to the Application Fields of Power Inductors and Demand Analysis of Power Inductors for Various Applications
Chapter 3: Technological Development Paths and Trends of Power Inductors
Chapter 4: Introduction to Major Industry Participants (Foreign Enterprises)
Chapter 5: Introduction to Major Industry Participants (Domestic Enterprises)
The global inductor market is in a relatively high mid-speed growth range, with its internal structure clearly shifting toward high-reliability and high-performance categories such as power inductors, RF inductors and automotive-grade inductors. According to QYResearch, the global inductor market size stood at about 8.653 billion US dollars in 2024, and is expected to reach 13.075 billion US dollars by 2031, with a CAGR of approximately 6.95% from 2025 to 2031. Among them, power inductors are the absolute core sub-segment: the global power inductor market reached 5.376 billion US dollars in 2024, with a projected CAGR of about 7.7% from 2025 to 2031, and is expected to approach 8.849 billion US dollars by 2031. Automotive power inductors and power inductors for servers/data centers are seeing even higher growth, with their CAGRs reaching 10.89% and 12.48% respectively from 2025 to 2031. Overall, power inductors are the main growth driver of the inductor industry, while traditional low-end signal inductors are experiencing slowing growth, and some categories have even entered a phase of stock competition.
In terms of driving factors and policies, the core logic underpinning the growth of the global passive components, inductor and power inductor markets can be summarized into three main themes. First, computing power + connectivity is driving an increase in the power consumption density of electronic systems. AI servers, cloud data centers, high-performance PCs, 5G base stations, optical modules and high-end routing and switching equipment are seeing a growing reliance on multi-phase Voltage Regulator Modules (VRM), power modules and Point-of-Load (PoL) power supplies, which in turn is fueling a surge in demand for miniaturized, high-current, low-loss power inductors and high-frequency inductors. Second, transportation electrification + rising penetration of on-board electronics has made automotive-grade power inductors one of the fastest-growing sub-segments in the industry. Third, electrification and digitalization of industry and energy – including industrial control servos, photovoltaic inversion, energy storage Power Conversion Systems (PCS) and charging infrastructure – is driving sustained demand for high-reliability, high-temperature and high-voltage resistance power inductors. Coupled with policy support for new energy, intelligent manufacturing, localized supply chains and energy efficiency in regions such as the US, the EU, China, Japan, South Korea and India, inductors and power inductors are poised to capture structural opportunities in the medium-to-long term supported by both policy backing and booming demand across multiple downstream sectors.
In terms of applications, PCs and general consumer electronics (smartphones, tablets, wearables, game consoles, TVs, audio equipment, robotic vacuums, VR/AR, etc.) remain the largest demand segment for power inductors, characterized by high shipment volumes, high cost performance and rapid iteration. Consumer electronics and computer electronics have long been among the end industries with the largest demand for components such as Multi-layer Ceramic Capacitors (MLCC), resistors and inductors. In the PC sector, multi-phase Buck converters/VRMs supply power to CPUs/GPUs, Platform Controller Hubs (PCH), memory and high-bandwidth peripherals, with each phase requiring a high-current, low DC resistance (DCR) power inductor. High-end gaming laptops, workstations and AI-enabled PCs have even higher requirements for power supply transient response and current capacity, leading to both higher usage volume and a higher average selling price (ASP) per unit for medium and large-sized shielded integrated molded inductors compared with traditional thin and light laptops. On the consumer electronics side, smartphone SoCs/application processors, Power Management Integrated Circuits (PMIC), RF Power Amplifiers (RF PA), display modules, motors and audio modules all adopt multi-channel buck/boost topologies, creating tremendous demand for 1–5A miniature power inductors. Wearables and True Wireless Stereo (TWS) devices emphasize ultra-miniature packaging and low loss, driving the penetration of thin-film, molded and metal composite inductors in high-end products. Overall, the power inductor market for PCs and consumer electronics is characterized by volume-driven demand and rising per-unit value. The competitive landscape is dominated by Japanese, South Korean and Taiwanese manufacturers such as Delta Electronics (Cyntec), TDK, Murata Manufacturing, Yageo, Taiyo Yuden, Samsung Electro-Mechanics and Vishay, while Chinese manufacturers (Sunlord Electronics, Microgate Technology, etc.) are accelerating localization substitution in medium and low-voltage consumer applications.
Servers & data centers, network communications (including 5G), and industrial control equipment form a high power & high reliability demand cluster for power inductors. Inductors play a key role in power supply and signal links in data centers, used for EMI/noise suppression; in 5G base stations and high-frequency communication systems, they serve as one of the core components for RF matching and filtering. AI servers and high-density rack servers generally adopt dozens or even hundreds of phases of VRM, with CPUs/GPUs/acceleration cards, HBM/DDR, power backplanes and high-speed interface boards all requiring high-current power inductors. Combined with the 48V–12V–1V multi-stage power supply architecture, this results in a significantly higher per-unit value of power inductors for a single server compared with traditional servers. In network communications, motherboards, line cards and power boards in 5G/FTTx/high-end routing and switching equipment use both high-frequency RF inductors and a large number of power inductors; market analysis of high-frequency inductors shows that communications, automotive electronics, consumer electronics and industrial equipment are the core application segments for high-frequency inductors. Industrial control equipment (PLC, frequency converters, servo drives, industrial power supplies, etc.) places greater emphasis on wide temperature range, long service life and resistance to harsh working conditions, creating strong demand for high-reliability power inductors such as integrated molded, iron powder core and metal composite types. Overall, in the competitive landscape, Japanese brands (TDK, Murata, Taiyo Yuden, Panasonic, Sumida, Sagami Elec), Taiwanese brands (Delta Electronics (Cyntec), Yageo, Trio Technology, TAI-TECH Advanced Electronics, Arlitech Electronic, Mazo) and European and American manufacturers (Vishay, Bourns, Coilcraft, Eaton) hold the main market share of high-end power inductors for servers, telecommunications and industrial control. A small number of Chinese manufacturers have achieved partial penetration in industrial control power supplies and medium and low-speed communication equipment, and with the advancement of localization for domestic servers, 5G and industrial automation in China, domestic power inductors have significant penetration potential in these fields.
On the automotive front, the rising penetration of EV/HEV coupled with the popularization of intelligent cockpits and Advanced Driver Assistance Systems (ADAS) is driving dual growth in demand volume and per-vehicle value for automotive-grade power inductors. On the one hand, the body/chassis and powertrain (including OBC, DC-DC, BMS, electric drive control) extensively use AEC-Q200 certified integrated molded or metal composite power inductors with high current and wide temperature range performance; on the other hand, ""dozens of Electronic Control Units (ECU)"" such as cameras, radars, domain controllers and infotainment systems are all equipped with multi-channel PoL power supplies, requiring miniature automotive-grade power inductors. The CAGR of automotive power inductors from 2025 to 2031 is significantly higher than that of the overall power inductor market.
For home appliances and major home appliances (refrigerators, washing machines, air conditioners, kitchen and bathroom appliances, power tools, etc.), although the per-unit usage quantity and ASP are lower than those for automotive and server applications, driven by the adoption of inverter technology and high energy efficiency policies, the demand for power inductors in inverter compressors, motor drives and power boards is continuously upgrading, making this segment one of the steady cash flow sources for passive component manufacturers laying out the ""home appliance + industry"" track. The security and surveillance system segment (PoE cameras, NVR, PoE switches, etc.) is a medium and small-scale segment with structural boom: the trends of PoE adoption and AI integration are raising the power density of front-end cameras and back-end equipment, driving sustained growth in demand for high-reliability, miniature shielded power inductors and Power over Coax (PoC) inductors. Based on an estimate of all application segments, the future demand structure of power inductors will show the following characteristics: PCs and consumer electronics will maintain volume leadership; automotive, server/data center and industrial control will drive incremental growth; communications, home appliances, security and emerging applications (AR/VR, energy storage, power tools, etc.) will provide additional growth flexibility. Industry competition will also accelerate differentiation around these booming applications.
From the industrial chain perspective, power inductors are a typical passive component sub-segment characterized by material-driven, process-driven and downstream diversification. The upstream sector mainly includes soft magnetic materials (Mn-Zn/Ni-Zn ferrite powder, iron powder core, metal composite powder, etc.), magnetic cores and bobbins, enameled wire and copper foil, resins and packaging materials, as well as specialized equipment and process chemicals for sintering, molding and electroplating. Leading manufacturers such as Delta Electronics (Cyntec), TDK and Murata rely heavily on independently developed iron-based alloy powder and composite molding processes for their latest generation of metal alloy power inductors and automotive-grade metal alloy inductors, thereby achieving high saturation magnetic flux density, excellent DC bias characteristics and low loss; this makes upstream material technology a key constraint on the performance and cost of power inductors. The midstream sector covers the design and manufacturing of power inductors, concentrated in Japan, Taiwan China, South Korea and the Chinese mainland, with representative manufacturers including Delta Electronics (Cyntec), TDK, Murata Manufacturing, Taiyo Yuden, Samsung Electro-Mechanics, Yageo, Vishay, and Chinese manufacturers such as Sunlord Electronics and Microgate Technology. Their core competitiveness lies in magnetic material formulation and simulation design, winding and molding processes, miniaturized packaging technology and reliability verification systems, as well as the understanding and execution capabilities of automotive and industrial grade certification systems. The downstream sector covers diverse industries including PCs, smart terminals, servers and data centers, automotive electronics, industrial control, communications, home appliances and security, with power inductors generally being adopted on a large scale through EMS/ODM manufacturers or module suppliers (power modules, PD/PoE modules, on-board ECU modules). In summary, the power inductor industrial chain is highly geographically concentrated in the Asia-Pacific region and highly technologically concentrated in a small number of leading Japanese and Taiwanese enterprises. However, Chinese local manufacturers have achieved meaningful breakthroughs in consumer electronics, home appliances and some industrial control/communication fields, and the industrial chain is evolving with the characteristics of high-end concentration, low and mid-end fragmentation and accelerated localization substitution.
Synthesizing information from the overall passive components market, the global inductor market and key downstream applications, a clear judgment can be made: power inductors will maintain medium-to-high speed growth in the next 5–10 years, outpacing the overall growth rate of traditional passive components, and will be one of the sub-segments with the most structural opportunities in the passive components industry. On the one hand, the demand for computing power + connectivity from AI servers, cloud data centers, 5G/6G, PCs/high-end laptops and general consumer electronics will continue to drive the evolution of high-frequency and high-power density power supply architectures, boosting the continuous upgrading of miniaturized, high-current and low-loss power inductors. On the other hand, automotive electrification and intelligence, the electrification of power systems in industry and energy, and the high energy efficiency and intelligent transformation of home appliances and security systems will form another steady demand curve, sustaining long-term boom in the demand for automotive and industrial grade power inductors. At the same time, the industry is facing challenges such as price cycles, inventory fluctuations, geopoliticization of supply chains, and technological substitution from on-chip integrated inductors and modular power supplies. However, based on existing technologies and reliability requirements, high-current, wide-temperature and long-service-life scenarios are still difficult to completely decouple from discrete power inductors. For industrial chain participants, the key to future competition lies in four aspects: (1) Mastering advanced magnetic materials and high-end processes such as integrated molding/metal alloy technology to achieve systematic optimization of performance and cost; (2) Establishing a stable Tier-1 customer base in booming applications such as automotive, server/data center, industrial control and communications; (3) Realizing localized layout and service capabilities in emerging manufacturing and demand hubs such as China and ASEAN; (4) Enhancing the discourse power in solutions at the OEM/ODM end through modularization, power supply solution capabilities and system-level collaboration. If manufacturers can gain advantages in the above dimensions, they are expected to obtain long-term and sustainable excess returns in the new wave of power electronics + digitalization + automotive electrification in the global electronics industry.
Market Segmentation
By Company
TDK
Murata
YAGEO (Chilisin)
Delta Electronics (Cyntec)
Taiyo Yuden
Sunlord Electronics
Microgate Technology
Samsung Electro-Mechanics
Vishay Intertechnology
Panasonic
Sumida
Coilcraft
Sagami Elec
MinebeaMitsumi
Laird Technologies
Kyocera AVX
Bel Fuse
Littelfuse
Würth Elektronik
Inpaq Technology
Zhenhua Fu Electronics
Fenghua Advanced
Shenzhen Yigan Technology
Darfon Electronics
Bourns
TAI-TECH Advanced Electronics
Arlitech Electronic
ABC Taiwan Electronics
Trio Technology
Segment by Application
Automotive Electronics
Consumer Electronics (Mobile Phones, Wearables, etc.)
PC
Servers & Data Centers
Industrial Control
Network Communications
Home Appliances
Security and Monitoring Systems
Others
Chapter Outline
Chapter 1: Overall Status of the Global Passive Components, Inductor and Power Inductor Industry
Chapter 2: Introduction to the Application Fields of Power Inductors and Demand Analysis of Power Inductors for Various Applications
Chapter 3: Technological Development Paths and Trends of Power Inductors
Chapter 4: Introduction to Major Industry Participants (Foreign Enterprises)
Chapter 5: Introduction to Major Industry Participants (Domestic Enterprises)
Table of Contents
200 Pages
- 1. Global Overview
- 1.1 Passive Component Market Introduction, Market Size And Forecast
- 1.2 Global Passive Component Market Size And Forecast
- 1.3 Global Inductors Market Size And Forecast
- 1.3.1 Global Inductors Revenue By Segment: Power Inductors, Rf Inductors And Other Inductors
- 1.3.2 Global Inductors Revenue And Forecast
- 1.3.3 Global Inductors Revenue Market Share By Manufacturers
- 1.4 Global Power Inductor Market Size And Forecast
- 1.4.1 Global Power Inductor Revenue And Forecast
- 1.4.2 Global Power Inductor Market Share Of Top 10 Players
- 1.5 Global Industry Policy Analysis Of Electronic Components
- 2. Power Inductor Analysis By Application
- 2.1 Global Power Inductor Market Size By Application
- 2.2 Automotive Electronics
- 2.2.1 Power Inductor Used In Automotive Electronics: Application And Demand Analysis
- 2.2.2 Demand Of Power Inductors For Automotive Electronics
- 2.2.3 Automotive Power Inductors: Technical Characteristics, Development History And Future Trends
- 2.2.4 Automotive Power Inductors: Main Driving Factors
- 2.2.5 Global Automotive Electronics Power Inductor Market Size And Forecast
- 2.2.6 Global Automotive Electronics Power Inductor: Key Manufacturers And Market Shares
- 2.3 Consumer Electronics (Mobile Phones, Wearables, Etc.)
- 2.3.1 Consumer Electronics: Power Inductor Application And Demand Analysis
- 2.3.2 Global Market Size Of Power Inductors For Consumer Electronics
- 2.3.3 Global Major Manufacturers And Market Shares Of Power Inductors For Consumer Electronics
- 2.2 Pc (Desktop Computers And Laptops)
- 2.2.1 Introduction To The Application Of Power Inductors In Pc
- 2.2.2 Global Pc Shipments
- 2.2.3 Key Driving Factors Of The Pc Market
- 2.2.4 Market Size Of Power Inductors For Pcs
- 2.2.5 Major Manufacturers And Market Shares Of Power Inductors For Pcs
- 2.3 Servers & Data Centers
- 2.3.1 Introduction To The Application Of Power Inductors In Servers & Data Centers
- 2.3.2 Demand Calculation Of Power Inductors For Servers & Data Centers
- 2.3.3 Servers & Data Centers: Future Direction Of Per-unit Consumption
- 2.3.4 Technological Trends For Servers / Ai Data Centers
- 2.3.5 Power Inductors: Technological Trends For Servers / Ai Data Centers
- 2.3.6 Global Market Size Of Power Inductors For Servers & Data Centers
- 2.3.7 Revenue Of Power Inductors For Servers & Data Centers Of Major Global Manufacturers
- 2.4 Industrial Control Equipment
- 2.4.1 Introduction To The Application Of Power Inductors In Industrial Control Equipment
- 2.4.2 Demand Of Power Inductors For Industrial Control Equipment
- 2.4.3 Demand Trends Of Power Inductors For Industrial Control Equipment
- 2.4.4 Demand Driving Factors Of Power Inductors For Industrial Control Equipment
- 2.4.5 Global Market Size Of Power Inductors For Industrial Control Equipment
- 2.4.6 Major Global Players And Shares Of Power Inductors For Industrial Control Equipment
- 2.5 Network Communications (Routers, Switches, Etc.)
- 2.5.1 Introduction To The Application Of Power Inductors In Network Communications
- 2.5.2 Demand Of Power Inductors For Network Communications
- 2.5.3 Future Development Trends Of Network Communications
- 2.5.4 Future Demand Trends And Key Driving Factors Of Power Inductors For Network Communications
- 2.5.5 Global Market Size Of Power Inductors For Network Communications
- 2.5.6 Global Major Manufacturers And Market Shares Of Power Inductors For Network Communications
- 2.6 Household Appliances
- 2.6.1 Introduction To The Application Of Power Inductors In Household Appliances
- 2.6.2 Demand Of Power Inductors For Household Appliances
- 2.6.3 Technical Characteristics, Development History And Future Trends Of Power Inductors For Household Appliances
- 2.6.4 Future Demand Trends And Driving Factors Of Household Appliances And Power Inductors For Household Appliances
- 2.6.5 Global Market Size Of Power Inductors For Household Appliances
- 2.7 Security And Monitoring Systems
- 2.7.1 Introduction To The Application Of Power Inductors In Security And Monitoring Systems
- 2.7.2 Demand Trends Of Power Inductors For Security And Monitoring Systems
- 2.7.3 Demand Driving Factors Of Power Inductors For Security And Monitoring Systems
- 2.7.4 Global Market Size Of Power Inductors For Security And Monitoring Systems
- 3. Technology Development Path And Trends Of Power Inductors
- 3.1 Overview Of Power Inductor Technology Roadmaps
- 3.2 Comparison Of The Main Development Paths Of Power Inductor Products
- 3.3 Power Inductor Structures
- 3.4 Application Matching And Future Trends
- 3.5 Analysis Of Source Powders, Key Powder Suppliers, And Powder Development Trends
- 3.5.1 Overview: Classification Of Source Powders For Power Inductors And Their Position In The Value Chain
- 3.5.2 Landscape Of Key Powder Suppliers (By Material Route)
- 3.5.3 Powder Development Trends And Their Impact On Power Inductors
- 3.5.4 Source Powder Supply For Molded Integrated Inductors: Sources And Supplier Structure
- 3.6 Development Directions Of Power Inductors
- 3.6.1 Power Inductor Technology Evolution Is Not Just “more Turns” Or “slightly Better Powders”
- 3.6.2 Processes: Low Cost, Automation, And High Yield = Platformization Of Molding + Oligopoly Of Multilayer/Thin Film
- 3.6.3 Multiphase Design: Engineering Reality And Evolution
- 3.6.4 Module And Vertical Power Delivery: Inductors Become Pdn Structural Elements
- 3.7 Key Technical Thresholds And Competitive Factors: From “can Make” To “make Well”
- 3.7.1 Materials & Powder Engineering: The Real “hard Threshold”
- 3.8 Entry Barriers In The Power Inductor Industry
- 4. International Major Power Inductor Manufacturers
- 4.1 Tdk
- 4.1.1 Tdk Basic Information / Manufacturing Footprint / Sales Regions / Competitors / Market Position
- 4.1.2 Tdk Power Inductors: “molded Spm + Thin-film Tfm” Targeting High Power Density And Automotive
- 4.1.3 Tdk Company Profile And Main Businesses
- 4.1.4 Tdk Latest Updates
- 4.2 Murata Manufacturing
- 4.2.1 Murata Manufacturing Basic Information / Manufacturing Footprint / Sales Regions / Competitors / Market Position
- 4.2.2 Murata Power Inductors: Multi-platform Processes + Dual Core Battlefields (Mobile + Automotive)
- 4.2.3 Murata Manufacturing Company Profile And Main Businesses
- 4.2.4 Murata Manufacturing Latest Updates
- 4.3 Yageo Group
- 4.3.1 Yageo Group Basic Information / Manufacturing Footprint / Sales Regions / Competitors / Market Position
- 4.3.2 Yageo Power Inductors: Product Capability And Application Positioning
- 4.3.3 Yageo Company Profile And Main Businesses
- 4.3.4 Yageo Latest Updates
- 4.4 Delta Electronics (Cyntec)
- 4.4.1 Delta Electronics Basic Information / Manufacturing Footprint / Sales Regions / Competitors / Market Position
- 4.4.2 Delta Electronics Power Inductors: Power Chokes As Core + Expansion To Auto/Pfc/Tlvr/Ai
- 4.4.3 Delta Electronics Company Profile And Main Businesses
- 4.4.4 Delta Electronics Latest Updates
- 4.5 Taiyo Yuden
- 4.5.1 Taiyo Yuden Basic Information / Manufacturing Footprint / Sales Regions / Competitors / Market Position
- 4.5.2 Taiyo Yuden Power Inductors: Two Main Lines (Metal Vs Ferrite) Driven By Consumer Miniaturization And Automotive High Reliability
- 4.5.3 Taiyo Yuden Company Profile And Main Businesses
- 4.5.4 Taiyo Yuden Latest Updates
- 5. Chinese Major Power Inductor Manufacturers
- 5.1 Shenzhen Sunlord Electronics Co., Ltd.
- 5.1.1 Shenzhen Sunlord Electronics Co., Ltd. Basic Information / Manufacturing Footprint / Sales Regions / Competitors / Market Position
- 5.1.2 Shenzhen Sunlord Electronics Co., Ltd. Power Inductor Products: Specifications / Parameters / Applications (By Process Route)
- 5.1.3 Shenzhen Sunlord Electronics Co., Ltd Company Profile And Main Businesses
- 5.1.4 Shenzhen Sunlord Electronics Co., Ltd Latest Company Updates
- 5.2 Shenzhen Microgate Microelectronics Technology Co., Ltd
- 5.2.1 Shenzhen Microgate Microelectronics Technology Co., Ltd. Basic Information / Manufacturing Footprint / Sales Regions / Competitors / Market Position
- 5.2.2 Shenzhen Microgate Microelectronics Technology Co., Ltd. Power Inductor Products: Specifications / Parameters / Applications
- 5.2.3 Shenzhen Microgate Microelectronics Technology Co., Ltd. Company Profile And Main Businesses
- 6. Research Findings And Conclusion
- 7. Appendix
- 7.1 Research Methodology
- 7.1.1 Methodology/Research Approach
- 7.1.2 Data Source
- 7.2 Author Details
- 7.3 Disclaimer
- List Of Tables
- Table 1. Global Passive Component Market Size (2020 Vs 2024 Vs 2031) & (Us$ Million), By Segment: Inductors & Capacitors & Resistors
- Table 2. Global Inductors Revenue (2020 Vs 2024 Vs 2031) & (Us$ Million), By Segment: Power Inductors, Rf Inductors And Other Inductors
- Table 3. National Level Industry Policy Analysis Of Electronic Components
- Table 4. Global Power Inductor Revenue (2020 Vs 2024 Vs 2031) & (Us$ Million)
- Table 5. Estimation Of The Number Of Power Inductors Per Vehicle By Vehicle Type/Electrification Level
- Table 6. Automotive Power Inductors: Technical Characteristics And Evolution Path (Focusing On Materials/Structures)
- Table 7. Automotive Power Inductors: Future Technological & Trends Usage Trends Of Power Inductors Per Vehicle
- Table 8. Automotive Power Inductors: Main Driving Factors
- Table 9. Global Automotive Electronics Power Inductor Revenue By Manufacturer (Us$ Million) & (2022-2025e)
- Table 10. Global Automotive Electronics Power Inductor Revenue Market Share (2022-2025e)
- Table 11. Analysis Of Power Inductors Used In Smartphones
- Table 12. Demand Of Power Inductors Per Smartphone
- Table 13. Global Market Demand Volume Of Power Inductors For Smartphones
- Table 14. Application Description Of Power Inductors In Tablets
- Table 15. Demand Volume Of Power Inductors Per Tablet (Estimated)
- Table 16. Overview Of Technical Characteristics Of Power Inductors For Tablets
- Table 17. Future Technological Trends Of Power Inductors For Tablets
- Table 18. Demand Volume And Trends Of Power Inductors Per Set Of Tws Earphones And Charging Cases
- Table 19. Demand Volume And Trends Of Power Inductors Per Set Of Smart Wristbands
- Table 20. Demand Volume And Trends Of Power Inductors Per Set Of Smart Watches
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