Quantifying the spin-wave asymmetry in single and double rectangular NiFe microstrips by TR-STXM, FMR and micromagnetic simulations
arXiv:2306.09881 · doi:10.1109/TMAG.2023.3292746
Abstract
The asymmetry of spin-wave patterns in confined rectangular NiFe microstrips, both in single and double-strip geometries, is quantified. The results of TR-STXM and micromagnetic simulations are compared. For the TR-STXM measurements and the corresponding simulations the excitation was a uniform microwave field with a fixed frequency of 9.43 GHz, while the external static magnetic field was swept. In the easy axis orientation of the analyzed microstrip, the results show a higher asymmetry for the double microstrip design, indicating an influence of the additional microstrip placed in close proximity to the analyzed one.
References in corpus (14)
- The design and verification of Mumax3
- Roadmap on Spin-Wave Computing
- Micromagnetics and spintronics: Models and numerical methods
- Parallel pumping for magnon spintronics: Amplification and manipulation of magnon spin currents on the micron-scale
- Mode conversion by symmetry breaking of propagating spin waves
- Adiabatic Control of Spin-Wave Propagation using Magnetisation Gradients
- Microwave soft x-ray microscopy for nanoscale magnetization dynamics in the 5-10 GHz frequency range
- Influence of structure and cation distribution on magnetic anisotropy and damping in Zn/Al doped nickel ferrites
- Controlled interconversion of quantized spin wave modes via local magnetic fields
- Extracting the Dynamic Magnetic Contrast in Time-Resolved X-ray Transmission Microscopy
- Imaging non-standing spin-waves in confined micron-sized ferromagnetic structures under uniform excitation
- Nonstanding spin waves in a single rectangular permalloy microstrip under uniform magnetic excitation
- Direct imaging of the ac component of the pumped spin polarization with element specificity
- Evaluation protocol for revealing magnonic contrast in STXM-FMR measurements