Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.

Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.

Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.

Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.

Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.

Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.

Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.

Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.

Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.

Responsible for the design, simulation, and performance optimization of magnetic components such as high-frequency inductors and power transformers, including structural design, parameter calculation (such as inductance, Q value, loss analysis, etc.)

Study the influence of different magnetic core materials (such as ferrite, metal magnetic powder core, nanocrystals, etc.) on device performance, optimize magnetic core selection and winding process.

Develop new high-frequency/high current inductors and transformers to meet the application needs of 5G communication, new energy vehicles, power modules, and more.

Use ANSYS Maxwell, HFSS, or COMSOL for multi physics simulations of electromagnetic, thermal, and stress fields to guide device design and optimization.

Build a testing platform to evaluate the electrical performance (such as DCR, saturation current, temperature rise), high-frequency characteristics (such as SRF, impedance curve), and long-term reliability of the device.

Master's degree or above from the class of 2026, majoring in Electronic Science and Technology, Electrical Engineering, Microelectronics or related fields, with research interests in magnetic devices or power electronics preferred.

Familiar with the working principle of inductors/transformers, proficient in the characteristics of magnetic core materials (such as Bs, μ i, loss curve) and winding process.

Capable of electromagnetic simulation (such as finite element analysis), proficient in using testing equipment such as network analyzers, LCRs, oscilloscopes, etc.

Understanding high-frequency/high-power application scenarios (such as switching power supplies, wireless charging, inverters), experience in product development is preferred.