Antiferromagnetic Spintronics in Magnetic Memory Devices

Weijian Qi;Hui Zhang;Lu Chen;Ao Du;Dongyao Zheng;Yinan Xiao;Daming Tian;Fengxia Hu;Baogen Shen;Jirong Sun;Weisheng Zhao
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Abstract

Antiferromagnetic spintronics, leveraging the distinct properties of antiferromagnetic materials, represents a rapidly advancing frontier in the realm of magnetic memory devices. Theoretical and experimental research has significantly propelled this field forward. Notably, antiferromagnetic materials, with their rapid spin dynamics and reduced sensitivity to stray magnetic fields, emerge as superior candidates for spintronic memory applications compared to traditional ferromagnets. This paper begins by evaluating the potential of antiferromagnetism as a robust spin source and its inherent advantage in field-free switching, pivotal for enhancing memory device efficiency. We then critically review the innovative mechanisms for manipulating and detecting the magnetic states of antiferromagnets, underscoring their integral role in the functional advancement of magnetic memory technologies. Subsequently, we explore a range of magnetic memory devices that integrate antiferromagnets into various functional layers, showcasing their versatility. The final section projects the evolving landscape of antiferromagnetic applications within magnetic memory devices, emphasizing their promising trajectory in revolutionizing memory storage solutions.
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磁性存储器件中的反铁磁自旋电子学
反铁磁自旋电子学利用反铁磁材料的独特性质,代表了磁性存储器件领域快速发展的一个前沿领域。理论和实验研究极大地推动了这一领域的发展。值得注意的是,与传统的铁磁体相比,反铁磁材料具有快速的自旋动力学,对杂散磁场的敏感性降低,因此成为自旋电子存储器应用的上佳候选材料。本文首先评估了反铁磁性作为强大自旋源的潜力及其在无磁场切换方面的固有优势,这对提高存储器件的效率至关重要。然后,我们批判性地回顾了操纵和检测反铁磁体磁态的创新机制,强调了反铁磁体在磁存储器技术功能进步中不可或缺的作用。随后,我们探讨了一系列将反铁磁体集成到各种功能层的磁存储器件,展示了它们的多功能性。最后一部分预测了反铁磁在磁性存储器件中的应用前景,强调了反铁磁在彻底改变存储器解决方案方面的前景。
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