Core Insights - Renowned physicist Yang Zhenning passed away on October 18, 2025, at the age of 103, leaving a profound legacy in education and science in China [1] Group 1: Contributions to Education - Yang Zhenning had a deep connection with Nanjing University, recalling fond memories of his past teachers and establishing a long-term academic relationship [2] - He emphasized the importance of nurturing students' curiosity and creativity, advocating for a broader knowledge base rather than early specialization [2][3] - Yang Zhenning established the "Yang Zhenning Scholarship" to support outstanding and innovative students at Nanjing University, reflecting his commitment to education [4] Group 2: Influence on Future Generations - He encouraged students to recognize their potential and focus on promising fields of study, highlighting the importance of staying informed about academic frontiers [4] - Yang Zhenning's teachings and mentorship inspired many students, including a notable case where a student he guided later became a professor and received recognition for his contributions to science [4] Group 3: Vision for Science in China - Yang Zhenning believed that curiosity drives the pursuit of physics and that research outcomes can significantly enhance human productivity and welfare [5] - He expressed confidence in China's future contributions to global science, emphasizing the need for a conducive environment for young scientists to explore valuable research questions [6]

2025年10月18日下午5点左右，清华大学高等研究院杨振宁先生吊唁处布置完毕，已有师生、群众自发前往吊唁。 清华大学高等研究院 图片来源：每经记者 杨卉 摄 高等研究院门口不时路过一些游客及学生，有游客在门口驻足交谈时提到了杨振宁先生。有学生告诉《每日经济新闻》记者，虽然自己没有上过杨振宁先 生的课，但也对他比较了解，今天中午看到消息的时候感到非常震惊。 记者|杨卉 每经记者｜杨卉 每经编辑｜段炼 魏官红 清华大学高等研究院杨振宁先生吊唁处 图片来源：每经记者 杨卉 摄 今日（10月18日）下午，《每日经济新闻》记者来到了清华大学高等研究院。记者从现场了解到，这里将设吊唁处供外界吊唁杨振宁先生，为期7天，每 日开放时间为早上9点至晚上9点。 ｜每日经济新闻 nbdews 原创文章｜ 未经许可禁止转载、摘编、复制及镜像等使用 编辑|段炼 魏官红 易启江 校对|陈星 ...

0:00 今天（10月18日），享誉世界的物理学家、诺贝尔物理学奖获得者，中国科学院院士，清华大学教授、 清华大学高等研究院名誉院长杨振宁先生，因病在北京逝世，享年103岁。 南都N视频记者从中山大学档案馆了解到，杨振宁1973年首次访问中大，因为听说自己在西南联大一年 级时的微积分老师姜立夫先生就在中大工作，于是杨先生特地前往拜会姜立夫老师。 自此，他便和中山大学建立了半个世纪的情谊。 杨振宁教授参观中大物理系（左二为杨振宁教授）。 1973年首次访问中大 与学校结下不解情缘 在中山大学广州校区南校园的冼为坚堂内，竖立着杨振宁的铜像，这座铜像是由南京中学美术研究院院 长吴为山雕塑及送赠的，铜像塑造出杨振宁在讲学时的神态，纪念着他与中山大学结下的不解情缘。 中山大学南校园冼为坚堂内的杨振宁铜像。 杨振宁的辞世，让中国乃至全球科学界扼腕。南都N视频记者了解到，在广东高校的发展史上，他播撒 的智慧火种早已生根发芽。 据清华大学发布的"杨振宁先生生平"介绍道，1980年代起，杨振宁先后帮助中山大学、南开大学等国内 高校设立理论物理等基础科学研究机构。 南都N视频记者 孙小鹏 1973年7月28日下午4时，在参观和座 ...

10月18日，诺贝尔物理学奖得主、中国科学院院士、著名物理学家杨振宁在北京逝世，享年103岁。 当天，清华大学官网发布了《沉痛悼念深切缅怀杨振宁先生》一文，学校官网也已转为黑白。 ...

Core Viewpoint - The article commemorates the life and achievements of renowned physicist Yang Zhenning, highlighting his contributions to modern physics and his impact on Chinese science and education [1][2][3]. Group 1: Personal Background and Education - Yang Zhenning was born in 1922 in Hefei, Anhui, and graduated from Southwest Associated University in 1942, later obtaining a master's degree from Tsinghua University in 1944 and a Ph.D. from the University of Chicago in 1948 [2][9]. - He was recognized as an exceptional student, achieving top scores in various subjects during his education [4][9]. Group 2: Major Contributions to Physics - Yang Zhenning's research focused on particle physics, field theory, statistical physics, and condensed matter physics, establishing foundational theories such as the Yang-Mills theory and the concept of parity violation in weak interactions, for which he received the Nobel Prize in Physics in 1957 [3][14]. - He discovered the Yang-Baxter equation, which opened new avenues in statistical physics and quantum groups [3]. Group 3: Awards and Recognition - In addition to the Nobel Prize, Yang Zhenning received numerous prestigious awards, including the Ramanujan Prize, the National Medal of Science, and the Albert Einstein Medal, among others [3]. - He was elected as a foreign member of several esteemed academic institutions worldwide, including the American Academy of Arts and Sciences and the Royal Society [3]. Group 4: Contributions to Education and Science in China - Yang Zhenning was the first top scientist to return to China after its founding, significantly contributing to the establishment of the Tsinghua University Institute for Advanced Study in 1997 [17][19]. - He played a crucial role in promoting scientific education and international collaboration, advocating for the establishment of programs that support young scholars and enhance China's scientific influence globally [31]. Group 5: Legacy and Impact - Yang Zhenning's life exemplifies a deep commitment to his homeland, as he often emphasized the importance of national pride and the potential of Chinese scientists [26][28]. - His efforts in fostering a vibrant academic environment at Tsinghua University and his dedication to mentoring young scientists have left a lasting legacy in the field of physics and education in China [21][31].

Core Points - Mercedes-Benz's interactive embroidery car interior project "LumiStitch" won the 2025 Red Dot Concept Design Award, showcasing a blend of Chinese landscape aesthetics and advanced smart materials [1][4] - The collaboration between Mercedes-Benz and Tsinghua University has been ongoing for over a decade, focusing on cutting-edge technologies in electric mobility, intelligent connectivity, and digital R&D [3][6] - The "LumiStitch" project combines smart lighting fibers with traditional embroidery techniques, creating a new interactive experience in automotive interior design [3][4] Collaboration and Achievements - The partnership between Mercedes-Benz and Tsinghua University has produced significant research outcomes in various fields, including electric mobility and smart connectivity, with a focus on battery technology and vehicle-to-grid (V2G) innovations [4][5] - The collaboration has evolved from establishing a "Sustainable Transportation Joint Research Center" to a "Sustainable Transportation Joint Research Institute," exemplifying Sino-German academic and industrial cooperation [6] - Mercedes-Benz has built a robust cooperative network in China, marking the 20th anniversary of its R&D presence in the country, with the new all-electric CLA model as a testament to its advancements in electrification and digitalization [6][7] Future Directions - Mercedes-Benz aims to deepen its collaboration with Tsinghua University and other leading tech companies to develop products and services tailored to Chinese customer needs, emphasizing innovation in electrification and intelligent technology [7]

Core Insights - On October 15, 2025, a total of 22 papers were published in the prestigious journal Nature, with several authored by Chinese scholars, highlighting the significant contributions of Chinese researchers in various scientific fields [2][4][6][9][12][21][22][24]. Group 1: Research Contributions - Zhang Zhenhua from RWTH Aachen University published a paper on "Deaminative cross-coupling of amines by boryl radical β-scission," focusing on a novel reaction mechanism involving boryl radicals [2]. - A collaborative work by Xu Minyu from National University of Singapore and Zhang Xinglong from Chinese University of Hong Kong discussed "Photocatalytic oxygen-atom transmutation of oxetanes," presenting advancements in photocatalysis [4]. - A team from Shanghai Jiao Tong University, Fudan University, and Nanjing University of Science and Technology introduced "Tin-based perovskite solar cells with a homogeneous buried interface," contributing to solar energy technology [6]. - The Taiwan Precision Medicine Initiative was highlighted in a paper by researchers from Academia Sinica, providing a cohort for large-scale studies in precision medicine [9]. - A study on "Population-specific polygenic risk scores for people of Han Chinese ancestry" was published by researchers from Academia Sinica, focusing on genetic risk assessment [12]. Group 2: Environmental and Material Science - Lin Yucheng from Rutgers University published a paper on "Modern sea-level rise breaks 4,000-year stability in southeastern China," addressing significant environmental changes [17]. - Research on "Patchy nanoparticles by atomic stencilling" was conducted by Chen Qian from the University of Illinois, exploring innovative methods in nanotechnology [19]. - A study on "A conserved H3K14ub-driven H3K9me3 for chromatin compartmentalization" was published by researchers from East China Normal University and the Chinese Academy of Sciences, contributing to the understanding of chromatin biology [21]. - Tsinghua University’s Fang Lu published a paper on "Integrated lithium niobate photonics for sub-ångström snapshot spectroscopy," advancing photonic technologies [22]. - Chen Chi-Fang from UC Berkeley introduced "Efficient quantum thermal simulation," focusing on quantum computing applications [24].

Core Insights - Tsinghua University has announced procurement intentions for 28 items of scientific instruments, with a total budget of 104 million yuan, expected to be purchased between August and October 2025 [2][3]. Procurement Overview - The total procurement amount for scientific instruments by Tsinghua University in 2025 has exceeded 2.27 billion yuan, with various procurement intentions announced throughout the year [4]. - Specific procurement intentions include: - 18.3 million yuan for various instruments in August 2025 - 21.3 million yuan for spectrometers and confocal microscopes in July 2025 - 10 million yuan for scanning electron microscopes and lithography machines in June 2025 - 14.8 million yuan for other instruments in June 2025 - 37 million yuan for additional instruments in May 2025 [4]. Instrument Details - Key instruments included in the procurement: - Cold Field Emission Scanning Electron Microscope (CFE-SEM): A high-resolution scanning electron microscope utilizing a cold field emission source [4]. - High-Resolution Transmission Electron Microscope (HRTEM): Capable of observing atomic-level structures with a resolution of 0.05-0.1 nm, essential for materials science and nanotechnology [6]. - Low Temperature Strong Magnetic Field Multifunctional Probe Microscope System: Integrates low-temperature environments and strong magnetic fields for advanced research in condensed matter physics and quantum materials [7]. Detailed Procurement List - A detailed procurement list includes various systems and their respective budgets: - Micro-CT for small animals: 3.8 million yuan - Dilution refrigerator: 5 million yuan - Local automatic sampling analysis system: 3.8 million yuan - Multifunctional probe microscope system: 5.2 million yuan - Etching machine: 2.8 million yuan - Electron beam exposure machine: 16 million yuan [8][10]. Additional Instruments - Other notable instruments include: - 3D visualization systems for pathology and anatomy education, with budgets ranging from 3.3 million to 4.4 million yuan [10]. - Automated antibody cloning and expression evaluation systems, with budgets of 3.87 million and 2.72 million yuan respectively [10]. Summary of Procurement Intentions - The procurement intentions reflect a significant investment in advanced scientific research capabilities, indicating Tsinghua University's commitment to enhancing its research infrastructure and capabilities in various scientific fields [9][10].

Core Viewpoint - Tsinghua University's research team has developed the world's first sub-angstrom snapshot spectral imaging chip, "Yuheng," marking a significant advancement in intelligent photonics technology for high-precision imaging and measurement [1][4]. Group 1: Technological Breakthrough - The "Yuheng" chip measures approximately 2 cm x 2 cm x 0.5 cm and can achieve sub-angstrom spectral resolution and tens of millions of pixels spatial resolution across a wide spectral range of 400-1000 nanometers [3]. - The chip enables simultaneous acquisition of full spectral and spatial information in a single snapshot, enhancing spectral imaging resolution by two orders of magnitude [3]. Group 2: Applications and Impact - The "Yuheng" chip addresses challenges in spectral imaging systems regarding resolution, efficiency, and integration, making it applicable in various fields such as machine intelligence, airborne remote sensing, and astronomical observation [4]. - For astronomical observations, the chip can capture the complete spectrum of nearly 10,000 stars per second, potentially reducing the survey period for the Milky Way's 100 billion stars from thousands of years to under ten years [4].

Core Insights - Tsinghua University's electronic engineering team has developed the world's first sub-angstrom snapshot spectral imaging chip named "Yuheng," marking a significant advancement in intelligent photonics technology for high-precision imaging and measurement [1][3]. Group 1: Technological Breakthrough - The "Yuheng" chip measures approximately 2cm x 2cm x 0.5cm and operates within a wide spectral range of 400-1000 nanometers, achieving sub-angstrom spectral resolution and tens of millions of pixels spatial resolution in snapshot spectral imaging [3]. - The chip enhances snapshot spectral imaging resolution by two orders of magnitude, overcoming the long-standing bottleneck of balancing spectral resolution and imaging throughput [3]. Group 2: Applications and Impact - The "Yuheng" chip addresses challenges in resolution, efficiency, and integration in spectral imaging systems, with potential applications in machine intelligence, airborne remote sensing, and astronomical observation [4]. - For astronomical observations, the chip can capture the complete spectrum of nearly 10,000 stars per second, potentially reducing the survey period for the Milky Way's 100 billion stars from thousands of years to under ten years [4].