Efficiency enhancement in power electronics is crucial for addressing global energy demands, with wide-bandgap semiconductors like GaN and SiC showing promise for high-frequency performance.
Energy losses in passive components at elevated frequencies hinder efficiency and miniaturization, necessitating advanced soft magnetic materials to minimize dissipation.
A recent study led by Professor Mutsuko Hatano introduces innovative diamond quantum imaging techniques to analyze energy losses in soft magnetic materials.
The research involves Harvard University and Hitachi, Ltd., aiming to improve the imaging of AC magnetic fields using novel protocols for kilohertz and megahertz frequencies.
The team successfully imaged AC magnetic fields, highlighting the potential of CoFeB–SiO₂ thin films in minimizing energy losses in high-frequency inductors.
This innovation advances quantum sensing and understanding of magnetization mechanics, crucial for efficient electronic designs aligned with sustainability goals.
The study lays the groundwork for improved electronic systems by simultaneously imaging AC magnetic field amplitude and phase across a broad frequency range.
The integration of diamond quantum sensors into practical applications offers promise for enhancing power electronics, electromagnets, non-volatile memory technologies, and spintronics.
This research signifies a significant leap in quantum technologies, showing potential for more energy-efficient electronic systems and sustainable development.
The ongoing work at the Institute of Science Tokyo highlights the transformative impact of quantum technologies on global energy challenges and sustainability efforts.
By delving into magnetic field behaviors and energy loss correlations, this research paves the way for an energy-efficient and sustainable future driven by quantum advancements.