每经记者｜刘艳美 每经编辑｜杨欢 南京日报消息，1月4日，新年首个工作日，南京市委市政府召开全市科技创新和产业创新深度融合发展 大会。会上发布南京人才政策2.0版，南京将实施"宁聚"项目，计划每年汇聚不少于30万名青年人才。 针对新就业高校毕业生，新政明确按学士1万元、硕士3万元、博士10万元发放一次性生活补贴。与此同 时，新政首次推出"青年人才房票"，大专、本科、硕士、博士分别可获3万元、6万元、10万元、15万元 购房补贴，该补贴可与现有租房补贴叠加使用，并提升公积金贷款额度。此外，租房补贴范围首次拓宽 至符合条件的大专毕业生，标准为每月500元。 新政还明确实施青拔项目，将新业态人才、创新创业服务人才等纳入支持范围，除了传统的自然科学、 工程技术、哲学社科、医疗卫生等行业领域人才，还包含导游、电商从业者、快递员、外卖员、网约车 司机、技术经理人、投资经理等。 另外，政策不仅面向市外引进人才，还首次明确"同等支持属地人才创业"，在宁高校的科技成果落地转 化、本地优秀创业项目，均可申请最高300万元的项目资助，并新增了对团队的专项支持。 解读：当地媒体报道指出，新政体现了南京真金白银投资于人、真情实意爱"才 ...

文 |《瞭望》新闻周刊记者 钱沛杉 在位于江苏南京的紫金山实验室，一台设备以恒定节奏持续颠动着乒乓球，小球可以长时间规律地圆周 跳动，仿佛被丝线精确操控。这是全球首个面向6G的"时延有界确定性无线接入演示系统"。整个颠球 过程，完全依靠6G网络实时无线控制，展现对时延和稳定性的极高控制能力。 6G最大的变化，是将实现通信卫星与地面网络、低空平台的深度融合，构建"空—天—地—海"无缝覆 盖的全域网络，让地球上每一个角落都能随时畅享高速互联 当5G正以高速率、低时延和海量连接，改变社会生产和生活模式时，新一代移动通信的全球竞合已启 幕。业内认为，6G将从底层重构信息传递、处理与认知的方式，成为支撑智能时代的关键基础设施， 即未来数字社会的"神经网络"。 太赫兹波独特的物理特性使其兼具通信与感知能力。这意味着6G网络不仅能传递信息，还能像雷达一 样，对周围环境进行高精度成像、测距和特征识别，实现通信感知一体化。 紫金山实验室正在验证的无人机送药正是这一特性的应用。依托紫金山实验室6G网络，无人机从百信 药房（文化名园店）起飞，跨越7.4公里城市空域，可精准抵达科技城店，配送效率达人工2～3倍，大 幅缩短送货时间，解 ...

中新社北京12月18日电 (记者王梦瑶)摩根士丹利中国首席经济学家邢自强18日在北京表示，如同现在讨 论汽车行业一样，下一个五年，中国前沿行业如6G网络、量子技术、脑机结合、核聚变、下一代生物 制造等将"再拔头筹"，中国实现科技自强前景广阔。 在当天举行的"《财经》年会2026：预测与战略暨2025全球财富管理论坛"上，邢自强表示，中国在电动 汽车、锂电池、下一代智能汽车甚至未来的核聚变领域已经具备先发优势，本质是依靠三大优势充分发 挥产业升级生命力的结果。 其一是产业链集群能力。在长三角、珠三角等地区，方圆几十公里范围内就可以迅速找到各类零部件及 各种工程师。"没有一个单一经济体具备让上下游产业链如此高度集群的优势，这种优势不会被任何'下 一个中国'所替代。"邢自强说。 其二是人才储备红利。当前科技竞争特别是人工智能领域竞争如火如荼，中国每年培养大量人工智能领 域的大学毕业生，这种人才红利将继续对中国从工业到先进创新的发展提供基础。 其三是善用国内市场。邢自强注意到，大部分中国企业都是从国内起家，依靠强大的内需消费使其产 品、设计具备竞争力后再"出海"。 邢自强认为，这三大优势在"十五五"期间还将继续得到升 ...

人民财讯12月10日电，中共银川市委员会关于制定国民经济和社会发展第十五个五年规划的建议发布， 其中提出，加强数字基础设施建设。大规模部署5G-A网络、适度超前布局6G网络、前瞻布局万兆光 网，升级骨干网络、光纤网络、无线网络。科学布局智算中心、超算中心。建设高标准、高安全性的可 信云，打造标准、规范、可复用的银川数据湖，建设成长性公共数据运营平台。发展融合基础设施，健 全完善智慧城市底座，高水平建设国家数据基础设施建设试点城市。 ...

Core Insights - The "14th Five-Year Plan" emphasizes the strategic layout of six future industries, including 6G technology, indicating a national focus on advancing this sector [1] - China is transitioning 6G from laboratory experiments to real-world applications, with significant projects and core technologies being developed [1][4] Industry Developments - In Nanjing, a 6G-controlled device is conducting tests to validate the reliability of 6G signals, which is crucial for future industrial applications [3] - The 6G industry in China is making breakthroughs in core technologies and accelerating key product development, creating a complete chain from innovation to industrial application [4] - 6G technology is being integrated into practical applications, such as long-distance monitoring of water bodies, demonstrating its operational capabilities [6] Patent and Market Position - By June 2025, China is expected to hold approximately 40.3% of global 6G patent applications, leading the world in this area [7] - The first phase of 6G technology testing has been completed, with over 300 key technologies developed, setting the stage for future advancements [7] - The plan includes a focus on developing 6G standards and industry research during the "14th Five-Year Plan," with commercial applications anticipated around 2030 and large-scale deployment by 2035, aiming to cultivate a trillion-yuan 6G industry [7]

Core Insights - The article emphasizes the accelerated development of the 6G industry in China, highlighting the completion of the first phase of 6G technology trials and the formation of over 300 key technology reserves, indicating a shift from laboratory concepts to industrial implementation [1][2][3] Group 1: Technological Advancements - The first multi-site, multi-intelligent reconfigurable intelligent surface (RIS) network trial for 6G has been completed, providing innovative pathways for wide coverage and seamless connectivity [2] - The Ministry of Industry and Information Technology (MIIT) has initiated systematic promotion of 6G system design, network architecture, and key technology innovations, engaging over a hundred domestic and international entities in collaborative trials [3] - 6G is expected to evolve towards stronger performance, higher intelligence, and broader coverage, integrating communication with AI, satellite internet, and other domains [2][3] Group 2: Terminal Innovation - Terminal innovation is identified as a core driver for the successful implementation of 6G, with expectations for AI-integrated smartphones and other smart devices to emerge [4][5] - The global market for AI smartphones is projected to grow from 16% of total smartphone shipments in 2024 to 54% by 2028, indicating a significant shift in consumer technology [4] - 6G terminals will encompass a variety of smart devices, including glasses, headphones, and vehicles, transforming them into intelligent hubs with AI capabilities [5][6] Group 3: Market Development - Various regions in China are actively laying out plans for 6G technology and industry cultivation, with local governments promoting initiatives to foster a 6G ecosystem [7] - The integration of satellite technology with 6G is seen as a major opportunity, with companies focusing on making satellites smarter and more reliable to support applications in smart cities and agriculture [7] - The capital market is increasingly involved in the 6G industry, with listed companies engaging in mergers and acquisitions to accelerate industry consolidation [7]

Core Achievements - China's research team has made a significant breakthrough in lunar science by discovering micron-sized hematite and magnetite crystals in samples returned from the Chang'e 6 mission, revealing the lunar oxidation-reduction state and magnetic anomalies [1][3] - The Shenzhou 22 mission has been initiated, with plans to launch a spacecraft carrying supplies and equipment for astronauts and the space station [3][5] - A domestically developed 3D-printed engine has successfully completed its first flight test, marking a major advancement in engineering applications [5] - Key breakthroughs have been achieved in 6G communication and nuclear power control technologies, indicating substantial progress in China's frontier technology development [7][8] Technological Developments - The first phase of 6G technology trials has been completed, with over 300 key technology reserves established, positioning China at the forefront of global 6G development [8] - A new generation of digital control systems for nuclear power plants has been launched, featuring 100% domestically produced components, enhancing safety and operational efficiency [10] - The completion of the Haizhu Bay Tunnel in Guangzhou improves connectivity within the Guangdong-Hong Kong-Macao Greater Bay Area, showcasing advancements in infrastructure [12] - The "Haixun 176," the largest and most advanced buoy tender in China's transportation system, has been officially commissioned, enhancing maritime navigation support capabilities [14][16] - The world's largest high-altitude wind power harvesting parachute has successfully completed trials, marking a significant step in the engineering application of high-altitude wind energy technology [17]

Group 1 - The 2025 6G Development Conference announced that the international organization "3rd Generation Partnership Project" (3GPP) has initiated research projects on network architecture, wireless air interface, and security technologies for 6G, establishing a timeline and roadmap for 6G standardization [1] - Research on 6G service requirements has been completed by 77%, focusing on architecture studies related to artificial intelligence integration, computing, and perception [1] - China has established the IMT-2030 (6G) Promotion Group, which has released research results such as the "Overall Vision and Potential Key Technologies for 6G" and is conducting testing and validation of key technologies like integrated sensing and wireless AI to accelerate technological maturity [1] Group 2 - The IMT-2030 (6G) Promotion Group is promoting the construction of various 6G system architectures, including intelligent agent-assisted networks and native intelligent agent networks, aiming to enable AI-as-a-service network capabilities [1] - The industry anticipates that 6G networks will begin deployment around 2030, with the number of 6G connections expected to exceed 5 billion by 2040, accounting for half of the total global mobile connections [1]

Core Insights - Researchers from Rice University, in collaboration with Los Alamos and Sandia National Laboratories, have developed a new signal control method that can determine the direction of a signal with an accuracy of 0.1 degrees, improving upon existing technologies by approximately tenfold [1][2] - This breakthrough is likened to equipping 6G communication signals with "instant GPS," addressing the challenge of quickly aligning high-frequency signals, which is crucial for ultra-high-speed data communication [1][2] Group 1 - The high-frequency bands are expected to be a key support for future 6G networks, catering to high-data applications such as wireless virtual reality headsets and real-time perception systems [1] - The developed method allows for almost instantaneous connections, enabling wireless links to be established or restored with extremely low latency, facilitating automatic identification and alignment of devices within milliseconds or even picoseconds [1][2] Group 2 - The technology functions like a "lighthouse" emitting multi-colored light, where each color's intensity varies randomly in different directions, allowing receivers to deduce their precise position relative to the transmitter [2] - The use of a super-thin electronic surface enables the scattering of signals into unique patterns based on direction and frequency, creating distinct "electromagnetic fingerprints" for rapid signal source identification [2] - This foundational breakthrough resolves the issue of rapid alignment of 6G signals, paving the way for widespread applications in wireless VR, holographic communication, and remote precision surgery, all of which require near-zero latency for massive data transmission [2]

Core Insights - Researchers from Rice University, in collaboration with Los Alamos and Sandia National Laboratories, have developed a new signal control method that can determine the direction of a signal with an accuracy of 0.1 degrees, improving precision by approximately 10 times compared to existing technologies [1] Group 1: Technology Development - The new method acts like an "instant GPS" for 6G communication signals, addressing the challenge of quickly aligning high-frequency signals, which is crucial for ultra-high-speed data communication [1] - High-frequency bands are expected to be key for future 6G networks, catering to high-data applications such as wireless virtual reality headsets and real-time perception systems [1] Group 2: Methodology - The developed method allows for almost instantaneous connections, enabling high-precision angle estimation of signals in a very short time, facilitating low-latency wireless link establishment or recovery [1] - The research team utilized a super-thin electronic surface that scatters signals into unique patterns based on the direction and frequency of the waves, creating distinct "electromagnetic fingerprints" for each direction [2] - The receiver can determine the signal source within a few picoseconds by comparing received signals with a pre-established signal library [2]