Microgate Technology

Microgate Technology, formally Shenzhen Microgate Technology Co., Ltd., is a Chinese electronic-components company headquartered in Shenzhen. It operates as an integrated materials, device-design, and manufacturing business, with activities spanning magnetic components, radio-frequency components, optical devices, and the underlying material technologies used to produce them. Its business model combines research and development, materials engineering, component design, and industrial-scale production rather than focusing only on assembly or distribution. The company was established on March 14, 2001, initially concentrating on low-temperature co-fired ceramics and chip components. In October 2007, it was reorganized into a joint-stock company, a step that supported its later capital-market development. Microgate Technology listed on the ChiNext board of the Shenzhen Stock Exchange on May 23, 2012, where it trades under ticker 300319. A major stage in the company’s development began in 2015, when it expanded into soft-magnetic composite alloy materials and research involving amorphous and nanocrystalline magnetic glass. These materials became a foundation for broader power-electronics capabilities. Building on that base, Microgate developed and manufactured high-power molded inductors, transient load voltage regulator components, planar transformers, and power-factor-correction inductors through an integrated device-manufacturing model. Microgate’s portfolio is directed toward applications requiring compactness, high current handling, thermal performance, electromagnetic compatibility, and efficient power conversion. Its products and technologies are relevant to high-computing-power smartphones and other AI-enabled consumer electronics, autonomous-driving systems, electric-vehicle powertrains, AI data-center power infrastructure, and renewable-energy storage. Product areas identified in reference material include integrated multiphase inductors, TLVRs, integrated magnetic-circuit PFC inductors and transformers, vehicle-grade common-mode chokes, and solid-state-transformer power transformers. The company has also pursued external research relationships. In 2024, it established technical partnerships concerning materials research and process-platform design with Central South University, the Chinese Academy of Sciences, Xi'an Jiaotong University, and the University of Electronic Science and Technology of China. In August 2025, it formed a joint laboratory with Guangming Laboratory, also known as the Guangdong Laboratory of Artificial Intelligence and Digital Economy in Shenzhen, to investigate miniature drive joints and bionic dexterous hands. Reference material reports that the laboratory team demonstrated two miniature drive joints, designated M01 and M02, in March 2026. Microgate has received recognition for participation in the industrialization of high-generation surface-acoustic-wave materials and filters. That project received the National Science and Technology Progress Award in 2018. Overall, the company’s positioning has developed from an early ceramics and chip-component producer into a specialized Chinese supplier of magnetic materials, power magnetics, RF-related components, and emerging electromechanical technologies for high-density computing, electrified mobility, and intelligent hardware.

Microgate Technology was founded in Shenzhen on March 14, 2001. Its initial activities centered on low-temperature co-fired ceramics and chip components, placing the company within the broader field of miniaturized electronic materials and components. In October 2007, the business was reorganized as a joint-stock company, preparing it for a public-market structure and subsequent expansion. On May 23, 2012, Microgate Technology was listed on the ChiNext board of the Shenzhen Stock Exchange under ticker 300319. The listing provided a platform for continued investment in research, production capacity, and product development. The company retained an integrated approach that connected materials research with component design and manufacturing. Beginning in 2015, Microgate broadened its technical scope through work on soft-magnetic composite alloy materials and amorphous and nanocrystalline magnetic glass. These activities were strategically important because magnetic materials are central to inductors, transformers, filters, and other power-conversion components. Using this material base, the company developed high-power molded inductors, TLVR components, planar transformers, and PFC inductors under an integrated device-manufacturing model. Microgate’s later business direction emphasized high-density and high-efficiency power applications. Its target areas included AI-capable smartphones, AI-enabled consumer electronics, autonomous-driving systems, electric-vehicle powertrains, AI data centers, and renewable-energy storage. The associated product range included integrated multiphase inductors and TLVRs for high-computing-power systems, integrated magnetic-circuit PFC inductors and transformers, automotive common-mode chokes, and solid-state-transformer power transformers. The company also developed a network of academic and institutional collaborations. In 2024, it established technical partnerships with Central South University, the Chinese Academy of Sciences, Xi'an Jiaotong University, and the University of Electronic Science and Technology of China. The stated areas of cooperation included materials research and process-platform design. These relationships reflected an effort to strengthen the scientific and manufacturing foundations of its electronic-component business. Microgate’s research recognition includes participation in a project concerning the industrialization of high-generation surface-acoustic-wave materials and filters. The project received the National Science and Technology Progress Award in 2018. In August 2025, Microgate and Guangming Laboratory in Shenzhen established a joint laboratory for miniature drive joints and bionic dexterous hands. Reference material reports that this collaboration produced and demonstrated the M01 and M02 miniature drive joints in March 2026. Across its history, Microgate has therefore moved from an initial focus on ceramic and chip components toward a broader integrated platform covering electronic materials, magnetic devices, RF components, optical devices, and emerging miniature-drive technologies. Its current strategic relevance is tied to the increasing demand for compact, efficient, and high-performance power and signal components in intelligent electronics, electrified transportation, computing infrastructure, and energy systems.

• 2026

  M01 and M02 miniature drive joints demonstrated

  [1]Microgate Technologyen.wikipedia.org

  The joint-laboratory team released two miniature drive joints and demonstrated them in bionic dexterous hands.

• 2025

  Miniature-drive joint laboratory established

  [1]Microgate Technologyen.wikipedia.org

  Microgate and Guangming Laboratory established a laboratory focused on miniature drive joints and bionic dexterous hands.

• 2024

  Research partnerships with universities and institutes

  [1]Microgate Technologyen.wikipedia.org

  Microgate established technical cooperation with Central South University, the Chinese Academy of Sciences, Xi'an Jiaotong University, and UESTC.

• 2018

  National Science and Technology Progress Award recognition

  [1]Microgate Technologyen.wikipedia.org

  A project involving Microgate on the industrialization of high-generation SAW materials and filters received the National Science and Technology Progress Award.

• 2015

  Expansion into advanced magnetic materials

  [1]Microgate Technologyen.wikipedia.org

  Microgate began work on soft-magnetic composite alloys and amorphous and nanocrystalline magnetic glass.

• 2012

  ChiNext listing

  [1]Microgate Technologyen.wikipedia.org

  Microgate Technology began trading on the ChiNext board of the Shenzhen Stock Exchange on May 23 under ticker 300319.

• 2007

  Joint-stock restructuring

  [1]Microgate Technologyen.wikipedia.org

  The company was reorganized into a joint-stock company in October.

• 2001

  Company founded

  [1]Microgate Technologyen.wikipedia.org

  Microgate Technology was established on March 14, initially focusing on low-temperature co-fired ceramics and chip components.

A Chinese integrated materials-and-device manufacturer focused on magnetic components, RF and optical devices, and power-electronics solutions for AI computing, consumer electronics, electric vehicles, autonomous driving, data centers, and energy storage.

• Power electronics

  Magnetic components

  Microgate’s magnetic-component portfolio is based on its work in magnetic materials and includes high-power molded inductors, multiphase inductors, TLVRs, PFC inductors, planar transformers, and related magnetic-circuit assemblies. These products support voltage regulation, filtering, energy conversion, and power delivery in compact and high-current electronic systems.

• Radio-frequency electronics

  RF components

  Radio-frequency components form one of Microgate Technology’s identified business areas. The company’s broader electronic-materials and device-design capabilities support components used in signal-handling and wireless-electronics applications, although the available reference material does not specify a complete product catalog.

• Optoelectronics

  Optical devices

  Optical devices are included in Microgate’s portfolio alongside magnetic and RF products. Available reference material identifies this as a business category but does not provide enough detail to enumerate particular device families or end markets.

• Robotics and electromechanical devices · 2026

  M01 and M02 miniature drive joints

  M01 and M02 are miniature drive joints developed through Microgate’s joint laboratory with Guangming Laboratory. The units were demonstrated in bionic dexterous hands, linking the company’s materials and device expertise with compact robotic actuation.

• 2025

  Establish miniature-drive joint laboratoryOther

  Background

  Microgate explored applications beyond conventional electronic components, including compact actuation for intelligent and bionic devices.

  Action taken

  In August, it established the Joint Laboratory for Miniature Drive Joints and Bionic Dexterous Hands with Guangming Laboratory in Shenzhen.

  Aftermath

  The collaboration produced the M01 and M02 miniature drive joints and demonstrated their use in bionic dexterous hands.

  Source

• 2024

  Expand collaborative research in materials and process platformsStrategy

  Background

  Advanced magnetic materials and manufacturing processes are central to Microgate’s component strategy.

  Action taken

  Microgate established technical partnerships with Central South University, the Chinese Academy of Sciences, Xi'an Jiaotong University, and the University of Electronic Science and Technology of China.

  Aftermath

  The partnerships broadened the company’s external research network, although the available material does not quantify commercial results.

  Source

• 2015

  Move into advanced magnetic-material technologiesStrategy

  Background

  Microgate sought to extend its electronic-component business beyond its earlier ceramics and chip-component focus by developing soft-magnetic composite alloys and amorphous and nanocrystalline magnetic glass.

  Action taken

  The company invested in research involving these materials and used the resulting capabilities as a basis for power inductors, transformers, TLVRs, and related magnetic devices.

  Aftermath

  The move supported a broader integrated materials, design, and manufacturing model and expanded Microgate’s relevance to high-power and high-density electronics.

  Source

1. 1Microgate Technologyen.wikipedia.org