2015/01/31 by A. Payne, Allison Payne, K. Ambal +4 · 7 citations
Chemistry · Physics and Astronomy · #Atomic physics #Chemistry #Condensed matter physics #Electron #Electron paramagnetic resonance #Ferromagnetic resonance #Force Microscopy Techniques and Applications #Magnetic field #Magnetic resonance force microscopy #Magnetization #Mechanical and Optical Resonators #Noise (video) #Nuclear magnetic resonance #Physics #Quantum and electron transport phenomena #Quantum mechanics #Quantum tunnelling #Resolution (logic) #Resonance (particle physics) #Scanning tunneling microscope #Scanning tunneling spectroscopy #Spin (aerodynamics) #Spin engineering #Spin polarization #Spin polarized scanning tunneling microscopy #cond-mat.mes-hall
paper · pdf · doi:10.1103/physrevb.91.195433
published in Physical Review B 91(19) (American Physical Society) · 26 pages, 8 figures
arxiv created 2015/01/31 · openalex publication_date 2015/05/22 · arxiv updated 2015/06/11 · openalex created_date 2025/10/10 · openalex updated_date 2026/08/06
A study of a force detected single-spin magnetic resonance measurement concept with atomic spatial resolution is presented. The method is based upon electrostatic force detection of spin-selection rule controlled single-electron tunneling between two electrically isolated paramagnetic states. Single-spin magnetic resonance detection is possible by measuring the force detected tunneling charge noise on and off spin resonance. Simulation results of this charge noise, based upon physical models of the tunneling and spin physics, are directly compared to measured atomic force microscopy system noise. The results show that the approach could provide single-spin measurement of electrically isolated qubit states with atomic spatial resolution at room temperature.