Microstrip resonator for microwaves with controllable polarization

Abstract

In this work the authors implemented a resonator based upon microstrip cavities that permits the generation of microwaves with arbitrary polarization. Design, simulation, and implementation of the resonators were performed using standard printed circuit boards. The electric field distribution was mapped using a scanning probe cavity perturbation technique. Electron spin resonance using a standard marker was carried out in order to verify the polarization control from linear to circular.

3 pages, 3 figures, submitted to Appl. Phys. Lett

References in corpus (5)

• Driven coherent oscillations of a single electron spin in a quantum dot
• Stark shift control of single optical centers in diamond
• Coherent Population Trapping of Single Spins in Diamond Under Optical Excitation
• Polarization-selective excitation of N-V centers in diamond
• Design of Q-Band loop-gap resonators at frequencies 34-36 GHz for single electron spin spectroscopy in semiconductor nanostructures

Cited by in corpus (9)

• Robust control of individual nuclear spins in diamond
• Multifrequency spin resonance in diamond
• Polarization- and frequency-tunable microwave circuit for selective excitation of nitrogen-vacancy spins in diamond
• Detection of a weak magnetic field via cavity enhanced Faraday rotation
• Optimal control of magnetization reversal in a monodomain particle by means of applied magnetic field
• Addressing spin transitions on 209Bi donors in silicon using circularly-polarized microwaves
• Development of planar microstrip resonators for electron spin resonance spectroscopy
• The shape of the Hanle curve in spin-transport structures in the presence of the ac drive
• Reduction of energy cost of magnetization switching in a biaxial nanoparticle by use of internal dynamics