A microwave interferometer of the Michelson-type to improve the dynamic range of broadband ferromagnetic resonance measurements
Eric R. J. Edwards, Anthony B. Kos, Mathias Weiler, Thomas J. Silva

TL;DR
This paper introduces a Michelson-type microwave interferometer that enhances the dynamic range and sensitivity of broadband ferromagnetic resonance measurements, enabling faster data acquisition for challenging thin film samples.
Contribution
The paper presents a novel interferometer design that operates broadband without manual adjustments, significantly improving measurement sensitivity in ferromagnetic resonance experiments.
Findings
Improved signal-to-noise ratio compared to traditional methods
Enhanced data acquisition speed for thin film measurements
Broadband operation without manual phase adjustments
Abstract
We present a Michelson-type microwave interferometer for use in ferromagnetic resonance experiments. The interferometer is capable of broadband operation without manual adjustment of phase delay or amplitude attenuation. A prototype of the design shows significant improvement of the signal-to-noise ratio when compared to non-interferometric ferromagnetic resonance experiments. We demonstrate that this increase in sensitivity can lead to a drastic increase in the data acquisition rate for hard-to-measure thin films that otherwise would require long integration times.
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