Development of a Ferromagnetic Resonance Measurement System for Microwave-Magnetic Interaction Analysis

Ferromagnetic resonance (FMR) is a powerful technique for studying the interaction between microwaves and magnetic materials. Microscopic magnetic phenomena, such as FMR, enable the control and manipulation of magnetic materials through external fields. In this research, an FMR measurement system is being developed to analyze how external magnetic fields induce resonance in a material’s magnetic moments. By measuring the resonance frequency, we can determine the material’s ability to absorb specific microwave frequencies and power levels. The system is designed to be highly sensitive to different types of magnetic materials, their thicknesses, magnetic ordering, and chemical composition. These findings are essential for understanding magnetic material behavior in wireless applications, providing insights into their potential for advanced communication technologies.

Publication Details

Journal
Scholar Works (Boise State University)
Published
2025-04-15
Primary Topic
Magnetic confinement fusion research
Type
article
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article

Development of a Ferromagnetic Resonance Measurement System for Microwave-Magnetic Interaction Analysis

Scholar Works (Boise State University)
Magnetic confinement fusion research
article

Development of a Ferromagnetic Resonance Measurement System for Microwave-Magnetic Interaction Analysis

article en

Abstract

Ferromagnetic resonance (FMR) is a powerful technique for studying the interaction between microwaves and magnetic materials. Microscopic magnetic phenomena, such as FMR, enable the control and manipulation of magnetic materials through external fields. In this research, an FMR measurement system is being developed to analyze how external magnetic fields induce resonance in a material’s magnetic moments. By measuring the resonance frequency, we can determine the material’s ability to absorb specific microwave frequencies and power levels. The system is designed to be highly sensitive to different types of magnetic materials, their thicknesses, magnetic ordering, and chemical composition. These findings are essential for understanding magnetic material behavior in wireless applications, providing insights into their potential for advanced communication technologies.

Scholar Works (Boise State University)
Openalex Percentile: Top 54%
Magnetic confinement fusion research
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