In a groundbreaking study led by Lawrence Berkeley National Laboratory (Berkeley Lab), researchers have made significant strides in the field of quantum computing and energy-efficient electronics. The team successfully captured atomic-resolution images and demonstrated electrical control of a chiral interface state – a unique quantum phenomenon with vast potential in the technological landscape. This discovery opens up new possibilities for researchers seeking to enhance quantum computing capabilities and develop energy-efficient electronic devices.

One of the key challenges in understanding chiral interface states has been visualizing their spatial characteristics in real materials. Previous experiments had confirmed the existence of these conducting channels, but the ability to visualize them with high resolution had remained elusive. However, the research team at Berkeley Lab and UC Berkeley managed to directly visualize a chiral interface state for the first time. This breakthrough provides critical insights into the atomic-scale structure of these 1D states and offers a glimpse into the potential for altering and creating them.

The team utilized twisted monolayer-bilayer graphene – a combination of two atomically thin graphene layers rotated relative to each other – to prepare chiral interface states. By leveraging a scanning tunneling microscope (STM), researchers were able to detect different electronic states in the sample and visualize the wavefunction of the chiral interface state. Furthermore, experiments demonstrated the ability to move the chiral interface state across the sample by manipulating the voltage on a gate electrode beneath the graphene layers. This level of control over the resistance-free conducting channels is a critical advancement in the field of quantum computing and energy-efficient electronics.

The findings from this study have significant implications for the development of tunable networks of electron channels, which hold promise for energy-efficient microelectronics and low-power magnetic memory devices. The ability to “write,” “erase,” and “rewrite” chiral interface states opens up new possibilities for leveraging exotic electron behaviors in quantum anomalous Hall (QAH) insulators. These advancements lay the foundation for the future of quantum computation and could potentially revolutionize how we approach complex computing tasks.

Moving forward, the research team plans to explore more exotic physics in related materials, such as anyons – a unique type of quasiparticle with the potential to enable quantum computation. By leveraging their innovative technique, researchers aim to unlock new frontiers in quantum computing and push the boundaries of what is possible in the field of materials science. While there is still much work to be done, these initial findings represent a significant step towards realizing the full potential of quantum computing and energy-efficient electronics.

The groundbreaking research conducted by the international team led by Berkeley Lab has paved the way for a new era in quantum computing and energy-efficient electronics. By visualizing and controlling chiral interface states, researchers have opened up a world of possibilities for the future of technology. As we continue to push the boundaries of what is possible in the realm of quantum phenomena, we are on the brink of a revolution that will shape the technological landscape for years to come.

Physics

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