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  Equinix Deploys High-Efficiency Toroidal Power Inductor Globally to Cut Data Center Carbon Emissions April 12, 2026, Singapore Equinix, the world’s largest carrier-neutral data center operator, announced a company-wide green power equipment upgrade plan, which will fully replace traditional E-core inductors with customized high-efficiency toroidal power inductor  in UPS uninterruptible power supplies and server multi-phase power supply units across over 50 global data center parks, aiming to reduce overall facility energy consumption by 15% by 2030.  Data centers run 24/7 all year round, and power conversion loss of UPS systems accounts for a large proportion of total power consumption. Traditional inductors have open magnetic circuits with severe flux leakage and high hysteresis loss, while the annular closed magnetic structure of the toroidal power inductor  makes magnetic field distribution more uniform, greatly cutting core loss and conduction loss during energ...

  Global Toroidal Power Inductor Market to Hit USD 1.327 Billion by 2033, Driven by EV, AI Servers and Renewable Energy March 25, 2026, New York, USA Coherent Market Insights released a complete 2026–2033 global toroidal magnetic component industry research report, which separately segments and analyzes the toroidal power inductor  subdivision market, revealing strong sustained growth momentum for the product. The report calculates that the global market scale of toroidal power inductor  reached USD 712 million in 2025, and is predicted to maintain a compound annual growth rate (CAGR) of 6.8% over the next seven years, breaking through USD 1.327 billion by 2033 Coherent M... . Multiple downstream high-growth sectors jointly fuel the demand expansion of toroidal power inductor . First, the global electric vehicle production volume will jump from 14.2 million units in 2025 to 35 million units in 2030; each mid-to-high-end EV needs 20 to 40 pieces of automotive-spec toroida...

  Electronic Transformers in Switching Power Supplies Switching power supplies are one of the most important applications of electronic transformers . In these systems, a high frequency transformer is used to transfer energy efficiently while providing voltage conversion and electrical isolation. Because switching power supplies operate at high frequencies, the transformer core can be much smaller than traditional power transformers. This allows power supplies to become compact, lightweight, and highly efficient. A high frequency power transformer also improves voltage stability and reduces energy loss during operation. These advantages are especially important in computers, communication systems, industrial automation equipment, and consumer electronics. As switching power supply technology continues to evolve, high-frequency transformers remain essential components for achieving efficient and reliable power conversion.

  Applications of Electronic Transformers Electronic transformers are widely used in modern electrical and electronic equipment due to their high efficiency and compact structure. One of the most common applications is in lighting systems, especially halogen lamps and LED drivers that require low-voltage power supplies. A high frequency transformer enables these systems to operate with reduced size and improved energy efficiency. Compared with traditional transformers, the smaller magnetic core allows compact installation inside lighting fixtures and electronic devices. In industrial equipment, a high frequency power transformer is commonly used in switching power supplies, automation systems, and communication devices. Its ability to provide stable voltage conversion and rapid response makes it highly suitable for modern electronic applications. Additionally, electronic transformers are widely used in home appliances, chargers, and audio systems. The combination of lightweight ...

   Working Principle of Electronic Transformers An electronic transformer is essentially an unregulated switching power supply based on inverter technology. The operating process begins by rectifying AC input voltage into DC voltage. After that, electronic switching components generate a high-frequency oscillation that converts the DC power into high-frequency AC power. This high-frequency energy is then transferred through a high frequency transformer, which changes the voltage to the required output level. Finally, the output may be rectified again depending on the application requirements. This process allows electronic transformers to achieve high conversion efficiency and stable performance. Compared with traditional transformers, a high frequency power transformer operates with much smaller magnetic components because high-frequency operation reduces the required core size. As a result, the entire system becomes more compact and lightweight. The high frequency transfor...

  Material Innovations Revolutionize Next Generation Toroidal Coil Inductor Performance April 1, 2026Leading material science researchers and electronic component manufacturers have achieved transformative breakthroughs in magnetic core and winding materials, significantly enhancing the performance of nextgeneration toroidal coil inductor  devices. Traditional toroidal coil inductor  products primarily use ferrite cores, which offer good highfrequency performance but suffer from lower saturation current and temperature stability. The adoption of advanced nanocrystalline and amorphous metal alloy cores  has enabled new toroidal coil inductor  components to deliver 30% higher saturation current, 25% lower power loss, and 40% better temperature stability  compared to ferritebased inductors. Additionally, innovations in highpurity copper winding and advanced insulation materials have reduced DCR by 15% and extended the component’s operating temperature rang...