那最幸福的时刻，莫过于当我们第一次在显微镜下观测到，用新方法制备出来的晶体排列得整整齐齐 时，那种震撼无法言喻。 2025年，我们将自主首创的晶体制备方法应用到光学晶体生长领域。通俗地说，就是用一种类似"顶竹 笋""拧魔方"的方法，让光学晶体生长，得到了一种"超薄转角光学晶体"。 作为一个研究凝聚态物理的科学家，这一年，最艰难的时刻莫过于要推翻全世界沿用的传统理论，承认 旧路走不通，在迷雾中寻找新方向。 这是制备的氮化硼光学晶体照片，照片中间长方形的样品区域是氮化硼材料。新华社发（作者供图） 这些名词是不是听起来一头雾水？这就是我写这篇科普文章的目的，就是告诉大家：基础科学研究很有 趣，它就在我们身边。 比如，什么是凝聚态物理？这个词儿听起来很高深，其实它就是研究微观粒子如何"排队"的学问，就像 水分子"听指挥"整齐排列就能结成冰一样。 什么叫晶体？它是计算机、通信、航空、激光技术等领域的关键材料。过去几十年，国际上通用的造晶 体方法，就像是"盖房子"——这相当于先铺好地基（晶种），然后把原子一块块搬运过来，在表面一层 层垒上去。 这种方法有个致命弱点：楼层一旦盖高了，稍微有一块砖没对齐，后面就会跟着歪，甚至 ...

Core Insights - Scientists from Osaka University and Hiroshima University have observed quantum entanglement in cerium rhodium tin (CeRhSn) material, regulated by Planck time, marking a significant advancement in quantum computing research [1][2] - The study published in the journal "npj Quantum Materials" highlights the unique properties of heavy fermions and their potential applications in solid-state quantum computers [1][2] Group 1: Quantum Entanglement and Heavy Fermions - The research confirms that the behavior of heavy fermions aligns with the mathematical description of quantum entanglement, with entanglement duration influenced by Planck time [2] - Heavy fermions are formed due to strong interactions between conduction electrons and localized magnetic electrons, leading to unconventional superconductivity and other unique properties [1] - The unique lattice structure of CeRhSn exhibits geometric frustration, preventing the system from reaching a stable energy state, thus resulting in various quantum phenomena [1] Group 2: Implications for Quantum Computing - The findings provide a deeper understanding of the nature of quantum entanglement and the complex interactions between heavy fermions, paving the way for manipulating quantum states in solid materials [2] - Continued research on these entangled states could offer new solutions for quantum communication and quantum computing technologies [2]

Core Viewpoint - Quantum Design announced the acquisition of the NanoScience Division of Oxford Instruments for a total price of £60 million in cash, expected to be completed by the end of September 2025, pending regulatory approval [2][3][8]. Group 1: Acquisition Details - The acquisition will merge two leading companies in the low-temperature systems field, combining Quantum Design's advanced physical measurement systems with Oxford Instruments' ultra-low temperature instrumentation [3][4]. - The deal includes a potential deferred payment of up to £3 million linked to future revenue from quantum expansion systems [8]. Group 2: Financial Performance - The NanoScience Division generated approximately £59 million in revenue and £1.1 million in adjusted operating profit for the fiscal year 2025 [8]. - Post-sale, Oxford Instruments plans to return up to £50 million to shareholders through share buybacks, leveraging a strong balance sheet and expected cash from the sale [9]. Group 3: Strategic Implications - The merger is expected to create synergies in product offerings and expertise, enhancing the combined company's ability to serve a wide range of applications in materials science research, including next-generation storage technology and quantum computing [4]. - The CEO of Oxford Instruments stated that the sale aligns with the group's strategy to focus on areas with the best growth opportunities, particularly in materials analysis, semiconductors, and healthcare [11].