The University of Maryland (UMD) researchers have unveiled a groundbreaking study on advanced information processing technologies that could potentially revolutionize telecommunications and data security. Led by You Zhou, an assistant professor in UMD’s Department of Materials Science and Engineering (MSE), in collaboration with researchers at the U.S. Department of Energy’s (DOE) Brookhaven National Laboratory, the study introduces a new device capable of processing information using minimal light. This innovation holds the potential to enhance energy efficiency and security in communications.

Conventional optical switches, which are responsible for transmitting information through telephone signals, typically rely on both light and electricity for data processing. This dual requirement results in the consumption of additional energy to interpret the data being transmitted. However, Zhou’s device presents a new alternative that utilizes light as the sole power source for full transmission, eliminating the need for electricity in the processing stage. This innovation not only enhances speed but also significantly improves energy efficiency in both telecommunications and computation platforms.

Zhou’s research has led to the development of a prototype device that enables information processing using minimal light, leveraging a material property called “non-linear response.” This unexpected discovery has paved the way for exploring new opportunities in the field of quantum communications. By achieving strong non-linearity, Zhou’s device opens the door to quantum communications, which offer enhanced data security features.

In the face of increasing cyber threats and data breaches, the need for robust security measures in communications has become paramount. Conventional communication channels are vulnerable to interception and data theft, leading to numerous breaches and compromises. Quantum communications, on the other hand, provide a promising solution by encoding information using light, making it nearly impossible to intercept without altering its quantum state. Zhou’s research is focused on improving materials’ nonlinearity to enable the advancement of quantum communication technologies.

Zhou’s collaboration with the Quantum Material Press (QPress) at the Center for Functional Nanomaterials (CFN), a DOE Office of Science user facility at Brookhaven National Laboratory, has been instrumental in the development of this innovative technology. The QPress provides access to state-of-the-art equipment for synthesizing quantum materials with atomic-level precision, enabling researchers to conduct cutting-edge research in open environments.

The partnership between Zhou’s research group and the CFN has been characterized by close collaboration and mutual support. The CFN staff, including co-author Suji Park, have provided essential technological expertise and tailored solutions to optimize the fabrication process of Zhou’s materials. This collaboration has significantly enhanced the sample fabrication process and propelled the advancement of the research project.

Moving forward, Zhou’s research team is focused on further increasing the energy efficiency of their device to the smallest possible electromagnetic energy levels. This pursuit represents a significant challenge in enabling quantum communications, which hold immense potential for enhancing data security and privacy. With the prevalence of cyberattacks and data breaches on the rise, the development of advanced communication technologies that offer robust protection against hackers is of critical importance.

The innovative research led by You Zhou and his team at the University of Maryland marks a significant milestone in the realm of telecommunications and data security. By harnessing the power of light and pushing the boundaries of material nonlinearity, Zhou’s device opens up new possibilities for energy-efficient communications and quantum technologies. As we continue to navigate the evolving landscape of digital communication, advancements in technology like the one pioneered by Zhou hold the promise of a greener and more secure future for millions around the globe.

Science

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