Terahertz wave generation and detection using liquid water

Minghao Zhang, Wen Xiao, Cunlin Zhang, Liangliang Zhang
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Abstract

Water, especially liquid water, strongly absorbs terahertz (THz) waves. Generating or detecting THz waves with liquid water has long been thought impossible. Some recent literatures have reported the successful radiation of THz waves from liquid water, which brings new opportunities for the development of THz-related devices based on liquid media. However, the radiation mechanism has not been well elucidated, and the generation efficiency needs to be further improved. We experimentally show that the application of liquid water lines instead of liquid films as THz radiation sources can effectively enhance THz signals. Generally, the generation and detection of THz waves are considered to be "reversible" physical processes. In view of this, we realized the coherent detection of THz waves for the first time based on plasma in liquid water, filling the gap in the field of coherent detection of THz waves in liquid media. Meanwhile, the THz Kerr effect technique for THz-driven liquid water, as a novel tool, is expected to help explore the low-frequency molecular dynamics associated with hydrogen bonding in liquid water.
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利用液态水产生和探测太赫兹波
水,尤其是液态水,强烈吸收太赫兹(THz)波。长期以来,用液态水产生或探测太赫兹波一直被认为是不可能的。最近一些文献报道了液态水成功辐射太赫兹波,这为基于液体介质的太赫兹相关器件的开发带来了新的机遇。但其辐射机理尚未很好地阐明,发电效率有待进一步提高。实验表明,用液态水线代替液膜作为太赫兹辐射源可以有效地增强太赫兹信号。一般来说,太赫兹波的产生和探测被认为是“可逆”的物理过程。鉴于此,我们首次实现了基于液态水等离子体的太赫兹波相干探测,填补了液体介质中太赫兹波相干探测领域的空白。同时,太赫兹驱动液态水的太赫兹克尔效应技术作为一种新颖的工具,有望帮助探索液态水中与氢键相关的低频分子动力学。
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