近日，位于美国印第安纳州的普渡大学实验室里，研究人员宣布了一项关键突破：他们开发出一种新型 量子互连平台，成功将多个独立的量子处理器连接在一起，传输效率比现有技术高出百倍。 这项技术的意义不亚于发明了量子世界的"光纤"，为构建全球量子互联网迈出了至关重要的一步。 构建量子互联网的首要障碍是量子态的脆弱性。每个量子比特都像是一座玻璃城堡里的勇士——威力强 大但极度敏感，任何微小的干扰都会导致"量子退相干"，使这些量子比特失去魔力。 科学家们面临着一个看似无解的困境：既要让量子比特相互交流，又要保护它们不受外界干扰。 此前量子计算机的规模难以突破的一个重要原因正是这种连接困境。即使是现在最先进的量子计算机， 其内部的量子比特数量也不过几百个。要将这些脆弱的量子比特连接成网络，难度不亚于用蜘蛛丝编织 一张横跨太平洋的网。 令人惊叹的是，整个转换过程的保真度高达99.7%，意味着信息在传递过程中几乎没有任何失真。 这项技术的神奇之处还在于它的可扩展性。现有的量子连接技术通常只能实现点对点的链接，而普渡大 学的新平台能够同时连接多个量子节点，形成一个真正的量子网络。 这就像是从只能两人通话的老式电话，进化到了可以多方视 ...

《东亚日报》近日发文称，数据量增加时会变慢的传统互联网不同，量子互联网的速度不受信息量影响，这得益于量 子计算机的独特性质，它们可以兼容0和1，而传统计算机只能区分两者。 【环球网财经综合报道】近日，中国信通院发布《量子信息技术发展与应用研究报告（2025年）》指出，我国量子信 息领域发展处于全球第一梯队。量子信息企业数量逐年稳定增长，全球总数超800家。2025年量子信息领域市场投融 资热度高涨，近十年全球产业投融资事件达1400余笔，融资金额超145亿美元。 报道还提到，各国竞相发展下一代量子技术，包括美国启动了量子互联网建设计划，中国政府将量子计算机等列为国 家优先发展领域，韩国也渴望推动这一领域的发展。中国量子研究实验室CHIPX及相关公司图灵量子开发出了比美国 半导体公司Nvidia的GPU快1000倍的量子半导体。 ...

Core Insights - The 27th China International High-tech Achievements Fair (CIHTAF) opened in Shenzhen, attracting nearly 5,000 participating companies, showcasing innovations in high-tech fields [1][3] Group 1: Innovative Products - Chengdu Tianfu Xinqiong Technology Co., Ltd. presented a GaN quantum light source chip, a core component for quantum internet, achieving domestic breakthroughs in materials and device design [1] - Chengdu Jingchuang Haoda Medical Technology Co., Ltd. showcased an intelligent 3D medical printing system that boasts a printing efficiency 30 times greater than traditional methods [2] - The "AI Body Measurement Mirror" from Maizhaohui Health Technology (Sichuan) Co., Ltd. generates a health report in just 30 seconds of user interaction [2] Group 2: Business Activities - CIHTAF emphasizes not only high technology but also transaction and cooperation, with over 200 events scheduled to facilitate communication and collaboration among participants [3] - Companies are actively seeking partnerships across various sectors, including AI, biomedicine, and intelligent manufacturing, to enhance product applications and efficiency [4] - The event attracted over 100 international buyers and established zones for international investment and procurement, aiming to convert more exhibits into commercial products [4]

Core Insights - The University of Chicago's Pritzker School of Molecular Engineering team has significantly advanced quantum communication, theoretically extending the connection distance between quantum computers to 2000 kilometers, enabling communication between previously isolated devices [1][2] - This breakthrough is crucial for the development of a global-scale quantum internet, marking a significant step towards practical implementation [1] Group 1: Quantum Communication Breakthrough - The previous maximum distance for quantum computers to communicate via fiber optics was only a few kilometers, limiting connectivity between devices located in different areas of Chicago [1] - The new research has improved the coherence time of single erbium atoms from 0.1 milliseconds to over 10 milliseconds, with some experimental conditions achieving up to 24 milliseconds, theoretically supporting quantum connections up to 4000 kilometers [1] Group 2: Manufacturing Process Innovation - The breakthrough is attributed to an innovative manufacturing process rather than new materials, utilizing a technique called molecular beam epitaxy, which allows for precise layer-by-layer construction of crystal structures [2] - This method contrasts with traditional techniques that involve high-temperature melting and slow cooling, paving the way for scalable production of interconnected quantum bits [2]

Market Dynamics - The State Council has issued measures to enhance support for private investment projects that meet certain criteria, emphasizing the use of new policy financial tools to support key industries and projects [1] - The State Council encourages private capital to participate in low-altitude economy infrastructure construction, ensuring equal treatment for private investment projects in commercial space activities [1] Industry Developments - By 2035, a new power system compatible with a high proportion of renewable energy is expected to be established, with a focus on improving the renewable energy consumption and regulation system [2] - The National Development and Reform Commission and the National Energy Administration are pushing for breakthroughs in large-capacity long-duration energy storage technologies, including liquid flow batteries and compressed air storage [3] Company News - TSMC reported a sales figure of NT$367.47 billion for October, reflecting an 11.0% month-on-month increase and a 16.9% year-on-year increase, with cumulative sales for the first ten months reaching NT$3.13 trillion, up 33.8% year-on-year [5] - Lingzhi Software plans to acquire 100% of the shares of Kaimiride, a leading financial IT supplier in China, through a combination of stock issuance and cash payment, with the transaction expected to constitute a major asset restructuring [7] - Maiwei Biotech has received approval for a Phase II clinical trial of its innovative drug 9MW3811 for pathological scars, positioning it as a leader in the global competitive landscape for similar targets [6]

Core Insights - The team from the University of Chicago's Pritzker School of Molecular Engineering has significantly advanced quantum communication by theoretically extending the connection distance between quantum computers to 2000 kilometers, enabling communication between devices that were previously unable to "talk" to each other [1][2] - This breakthrough is attributed to an innovative manufacturing process rather than new materials, utilizing a technique called molecular beam epitaxy to construct crystal structures with high precision, akin to 3D printing [2][3] Group 1: Quantum Communication Breakthrough - The previous maximum distance for quantum computers to communicate via fiber optics was only a few kilometers, limiting connectivity between devices located in different areas of the same city [1] - The key to overcoming this limitation lies in enhancing the coherence time of individual erbium atoms, which was improved from 0.1 milliseconds to over 10 milliseconds, and in some experimental conditions, even reached 24 milliseconds, theoretically supporting quantum connections up to 4000 kilometers [1] Group 2: Manufacturing Process Innovation - The traditional method of creating quantum devices involved high-temperature melting and slow cooling, followed by chemical etching, which has been replaced by a more innovative approach that allows for precise layer-by-layer construction of crystal structures [2] - This new technique opens a feasible path for the scalable production of interconnected quantum bits, as noted by experts in the field [2]

早在2020年2月，美国能源部阿贡国家实验室与芝加哥大学的科学家就宣布，他们在位于芝加哥郊区的 一个52英里（83.7公里）长的量子环网络中实现了量子纠缠——即一对微小粒子的行为相互关联，使其 状态完全一致。 如果你不是熟悉量子力学的科学家，你可能想知道这是怎么回事——为什么物质和能量在现实的最小尺 度上的这些行为与我们身边看到的世界截然不同。 但是研究人员的这项成就，可能成为未来几十年开发新一代、更强大互联网的重要一步。与当今网络使 用的只能表示0或1的比特不同，未来的量子互联网将利用量子信息中的量子比特，它可以呈现无限多种 值。（量子比特是量子计算机的信息单位，相当于经典计算机中的比特）。 这将使量子互联网获得更多的带宽，从而能够连接超强量子计算机及其他设备，运行大规模的应用程序 ——这些在现有互联网条件下是根本无法实现的。 路易斯安那州立大学巴吞鲁日分校的研究员苏米特·卡特里(Sumeet Khatri)在一封邮件中表示："理解量 子互联网概念最简单的方法就是通过理解量子隐形传态的概念。"他与同事们撰写了一篇关于天基量子 互联网可行性的论文，正如《技术评论(Technology Review)》这篇文章 ...

Core Insights - The University of Pennsylvania team achieved a groundbreaking advancement in quantum communication, successfully transmitting quantum signals over commercial fiber networks using standard internet IP protocols [1][3][6] - The key innovation is the compact "Q chip," which coordinates quantum and classical information, ensuring compatibility with existing network protocols and enabling automatic error correction with a transmission fidelity exceeding 97% [3][4][9] Technical Breakthrough - The testing was conducted on a one-kilometer commercial fiber network at Verizon's campus, demonstrating stable and efficient performance [1][3] - The "Q chip" is considered a foundational element for the future "quantum internet," potentially leading to transformative changes similar to the advent of the internet [3][6][14] Challenges and Solutions - Quantum networks face challenges due to the delicate nature of quantum particles, which lose their special states upon measurement [7][11] - The "Q chip" addresses these challenges by coordinating conventional light signals with quantum particles, allowing for effective communication without damaging the quantum information [7][9] Future Prospects - Currently, the network consists of a single server and node connected by one kilometer of Verizon fiber, but expanding the network is feasible by producing more chips [11][13] - A significant obstacle remains in transmitting quantum signals without disrupting entanglement, although some teams have managed to transmit "quantum keys" for secure communication [11][13]

（原标题：国盾量子(688027.SH)：对量子互联网等前沿科研领域暂不涉及） 格隆汇9月11日丨国盾量子(688027.SH)在投资者互动平台表示，目前国盾量子等企业对于量子经典融合 等方面的关注主要在QKD（如波分复用、量子通信光芯片）等产业方向，对量子互联网等前沿科研领 域暂不涉及。 ...

格隆汇9月11日丨国盾量子(688027.SH)在投资者互动平台表示，目前国盾量子等企业对于量子经典融合 等方面的关注主要在QKD（如波分复用、量子通信光芯片）等产业方向，对量子互联网等前沿科研领 域暂不涉及。 ...